Bachelor of Science in Plant Science (co-op optional)

at University of Guelph Canada

CTS offers a unique and flexible path to explore the role of culture and creativity in an increasingly digital world, using various technologies as part of the process. It emerges from the understanding that technology is inextricably linked to human experience, culture, and society. CTS courses tackle the complex relationships among power, knowledge, digital cultures, the representation of data, and the ethical questions surrounding the development, application, and accessibility of technologies. CTS students learn to intervene in and contribute to the contemporary world as agile creators, curators, communicators, and citizens.

In addition to completing the Bachelor of Arts with a Major in CTS, you can add an optional Areas of Emphasis in: Performance, Making & Design | Storytelling & Public Humanities |  Power, Identities, & Equity.  Each emphasis curates a unique set of courses that will allow you to apply and explore digital methods in a way that is meaningful to you. These may inspire interest in a specific career path, further research, or allow you to combine your studies in CTS with another subject (Minor or Double-Major).

Performance, Making & Design
Students in this area of emphasis learn to integrate their knowledge from core CTS classes into a variety of methods of making, creating, and performance.
Using digital technologies, students explore everything from printmaking to 3D design, from podcasting to the production of digital music. Students in this area develop skills in critique and creation: they learn to develop digital projects in a range of contexts while also developing a critical vocabulary by which to articulate the goals and achievements of the things they make.

Storytelling & Public Humanities
Students in this area of emphasis focus on the relationship between digital culture, data, public discourse, and narrative.
Analyze digital forms of storytelling from a variety of perspectives while also thinking critically about how narrative can be used to publicly disseminate knowledge. Investigate a range of digital forms of storytelling including podcasts, video games, and electronic literature. Seize opportunities to develop projects using emerging, digital technology to tell stories. In addition to thinking about how technology transforms ideas of narrative—what is a digital text and how can we read one—students also engage with the public on projects related to history, public discourse, and community work.

Power, Identities & Equity
Students in this area of emphasis focus on the intersection of identities such as gender, sexuality, race, class, (dis)ability and Indigeneity as they are reimagined in digital culture and by digital technology.
Both investigations of the past and analyses of power and difference in the present provide an important framework for understanding the role and potential of technologies. Students in this area of emphasis learn how to frame analysis of digital artifacts, digital production of knowledge, and exploration of modes of civic engagement to bring considerations of equity and diversity to the fore.

Biological and Medical Physics leverages physics to help solve complex challenges and opportunities in human health and medical fields.

The biological and medical physics major prepares students for dynamic careers in medical and health fields. Students take an integrated MATH and PHYS course in first year along with the chemistry and biology taken by other Bachelor of Science students. Second through fourth year, students will focus on physics courses and also include mathematics and biochemistry courses, along with courses specific to. biological physics or medical physic streams. Unique to the University of Guelph, students will also take a Science Communications course where they develop activities to help people understand the concepts of physics.

Learning Outcomes
You can expect to learn how to:

• Demonstrate mastery in advanced Electricity and Magnetism, Mechanics, Thermodynamics and Statistical Mechanics, Optics, and Quantum Mechanics
• Apply Intermediate level Mathematics techniques to enhance understanding in the aforementioned major subject areas
• Demonstrate advanced laboratory skills in order to practically realize concepts in Electricity & Magnetism, Mechanics, Thermodynamics, Quantum Physics, Optics, Nuclear Physics, Spectroscopy, and Electronics and apply these skills in self-directed learning
• Apply modern computational techniques to investigate various physical phenomena and demonstrate proficiency in mathematical software such as Maple, MatLab, and/or Mathematica

Co-Op Options
Biological and Medical Physics co-op is a five-year program, which includes five work terms. Below is an example of how the academic and work sequence will look for a Biological and Medical Physics major.

*Please note this sequence may change. The current undergraduate calendar will house the most accurate sequence that students must follow. 

Students in this co-op major complete a course, COOP*1100, in the fall semester of second year.  This course helps students prepare for their work term by developing professional attitudes and skills for the workplace. This course also provides students with a toolkit of resume and cover letter writing as well as interview skills, which helps students to apply, interview and secure their work term positions. 

Students can establish themselves and build successful careers in an emerging and fast-growing field: Nanoscience, the science of the very, very small; an inherently multidisciplinary approach that unites chemistry, physics, biology, and mathematics. Understanding the world at the molecular level is increasingly important for the development of many new technologies.

In this major, you will focus on the understanding and synthesis of nanoscale materials, in an industry that has been recognized as a revolutionary field of science and technology, comparable to the introduction of electricity, biotechnology, and digital information revolutions. Students take an integrated MATH and PHYS course in first year along with the chemistry and biology taken by other Bachelor of Science students. In second through fourth year, focus on the core nanoscience courses along with chemistry and physics. The nanoscience courses combine aspects from different science disciplines, reinforced and extended by the unique laboratory available where students learn to synthesize nanoparticles and nanostructured materials, and characterize the physical properties of these materials using a wide range of research-grade nanotools.

Learning Outcomes
You can expect to learn how to:

• Apply scientific methods and processes by formulating questions, designing investigations and synthesizing data to draw conclusions and make scientifically-based decisions.
• Generate and interpret scientific data using quantitative, qualitative and analytical methodologies and techniques.
• Demonstrate advanced, contemporary and relevant knowledge in the chemistry and physics of materials at the molecular level.
• Apply intermediate level mathematics techniques to enhance understanding in the chemistry and physics of materials at the molecular level.
• Demonstrate advanced laboratory skills to practically realize concepts in the chemistry and physics of materials at the molecular level, and apply these skills in self-directed learning.
• Work safely and effectively in the laboratory to generate reproducible and reliable results.
• Apply modern computational techniques to investigate various physical phenomena and demonstrate proficiency in using mathematical software.

Designed around a framework of sustainability, Mechanical Engineering empowers you to design and develop processes and systems that improve our environment, technology and quality of life.

Our innovative Mechanical Engineering program has been built to prepare you for a challenging and rewarding career in this versatile field. This program emphasizes the principles of physics and materials science for analysis, design, manufacturing, and maintenance of mechanical systems. It involves the production and usage of heat and mechanical power for the design, production, and operation of machines and tools. By emphasizing collaboration and integration, you will experience practical design-based learning and develop the tools to create new and effective solutions to issues in our world.

The Honours B.Sc. major in Nutritional and Nutraceutical Sciences is an exciting and unique major in Canada. Offered within the Department of Human Health and Nutritional Sciences, this major will provide you with a broad and basic grounding in the biology of nutrition, physiology, pathology, pharmacology and nutraceuticals.

The study of Nutritional and Nutraceutical Sciences is concerned with understanding the contribution of food, beverage and nutritional supplement consumption to growth, development of optimal biological function, maintenance of health, and treatment of disease. This major will also explore how we can use nutrients, minerals and food’s chemical properties to develop innovative products that will benefit humans, animals and the environment.

Beginning in your first year with a course entitled “Biological Concepts of Health” and followed in second year by “Fundamentals of Nutrition” you will examine the biology of nutrition from a whole organism level to the molecular and cellular aspects of metabolism and a functioning systems. In your third or fourth years, you will complete courses examining the efficacy, regulatory policies and relationships of functional foods and nutraceuticals to food and drugs and the roles nutrients and phytochemicals play in maintaining health and preventing/treating disease. You may also have an opportunity to complete a research course with a faculty member in a discipline related to nutrition, food, nutraceuticals, health and disease. The program is supported by a number of facilities on campus that you can be involved with during your undergraduate degree including the Human Nutraceutical Research Unit, Health and Performance Centre and the Food Technology Centre.

Learning Outcomes
You can expect to learn how to:

• Apply an integrated and broad foundation in life sciences to problems in human nutrition, nutri-pharmacology, nutri-toxicology and health.
• Demonstrate knowledge of the impact of human nutrition, nutri-pharmacology and nutri-toxicology on health and performance and provide mechanistic explanations for associated biological events at the molecular, cellular and whole organism levels of organization.
• Demonstrate an understanding of the science of prospective health; the pivotal role of individual nutrigenomic and nutri-epigenetic analyses and the critical role of evidence-based, lifestyle medicine in the effective application of this prospective health approach to healthcare.
• Define and analyze the interactions of nutrition and exercise on the metabolic control of health and disease.
• Critically analyze experimental design, data analysis and interpretation in human nutrition, nutri-pharmacology and nutri-toxicology research.

The Real Estate and Housing major in the B.Comm. program is one of only a few undergraduate programs in Canada that specialize in the real estate sector. It takes a multi-disciplinary approach to the study of residential and commercial/investment real estate.

The purpose of this major is to develop the conceptual, analytical and management skills required for careers in real estate and housing. Students graduate with a degree that can lead to a variety of professional positions in the private or public sectors of the Canadian real estate industry or they can continue on to graduate work in business, planning or the social sciences.

A principal aim of the Co-op program in Real Estate and Housing is to facilitate the transition of students from academic studies to a professional career by enhancing the integration of theory and practice. The Co-op program in Real Estate and Housing is a five year program, including five work terms. Students must complete a Fall, Winter and Summer work term and must follow the academic work schedule as outlined below (also found on the Co-operative Education website: https://www.recruitguelph.ca/cecs/). Please refer to the Co-operative Education program policy with respect to adjusting this schedule.

To be eligible to continue in the Co-op program, students must meet a minimum 70% cumulative average requirement after second semester, as well as meet all work term requirements. Please refer to the Co-operative Education program policy with respect to work term performance grading, work term report grading and program completion requirements. 

Biomedical Toxicology is the study of dose-response relationships in systems related to mammals with the understanding that the “Dose makes the poison”.

This interdisciplinary program at the University of Guelph combines studies in biomedical science, chemistry, human health and nutritional sciences, molecular and cellular biology and pathobiology, allowing students to understand mechanisms of toxic action and how to apply toxicological testing to assure the safety of new drugs, pesticides and industrial chemicals before they can be released into the marketplace.

In first year, students study the core sciences of biology, chemistry, physics and mathematical science. Second through fourth years are very interdisciplinary and include courses in chemistry, biochemistry, physiology, molecular biology and genetics, nutrition and toxicology. Students take courses that provide a high-quality laboratory experience ranging from analytical and organic chemistry to molecular biology.

All students graduate with exceptional laboratory experience in analytical instrumental laboratories (with instrumentation used in modern analytical, forensic and pharmaceutical labs) as well as molecular biology and biochemistry laboratories.  

Learning Outcomes
You can expect to learn how to:

• Demonstrate a working knowledge of target organ toxicity and the processes involved in absorption, distribution, metabolism and excretion of toxicants.
• Apply methods for evaluating the hazards associated with exposure to toxicants.
• Demonstrate an understanding of how to measure and quantify the amount of toxic substances in a variety of matrices including drinking water, blood and urine samples.
• Demonstrate an understanding of how to analyze and interpret results from a dose/response assay used to measure toxicity.

Explore the biological aspects of human movement, function, and performance in health, aging, and chronic disease. Study nutrition, physiology, biomechanics, anatomy, genetics, and genomics. Experience comprehensive hands-on laboratories in exercise testing and assessment of human movement, and an in-depth dissection-based anatomical study of the human body. Gain the requirements to become a certified Kinesiologist. Pursue graduate work or a variety of related professional programs. If you're interested in Kinesiology, please see the University of Guelph-Humber B.A.Sc. Kinesiology program.

Students can establish themselves and build successful careers in an emerging and fast-growing field: Nanoscience, the science of the very, very small; an inherently multidisciplinary approach that unites chemistry, physics, biology, and mathematics. Understanding the world at the molecular level is increasingly important for the development of many new technologies.

In this major, you will focus on the understanding and synthesis of nanoscale materials, in an industry that has been recognized as a revolutionary field of science and technology, comparable to the introduction of electricity, biotechnology, and digital information revolutions. Students take an integrated MATH and PHYS course in first year along with the chemistry and biology taken by other Bachelor of Science students. In second through fourth year, focus on the core nanoscience courses along with chemistry and physics. The nanoscience courses combine aspects from different science disciplines, reinforced and extended by the unique laboratory available where students learn to synthesize nanoparticles and nanostructured materials, and characterize the physical properties of these materials using a wide range of research-grade nanotools.

Learning Outcomes
You can expect to learn how to:

• Apply scientific methods and processes by formulating questions, designing investigations and synthesizing data to draw conclusions and make scientifically-based decisions.
• Generate and interpret scientific data using quantitative, qualitative and analytical methodologies and techniques.
• Demonstrate advanced, contemporary and relevant knowledge in the chemistry and physics of materials at the molecular level.
• Apply intermediate level mathematics techniques to enhance understanding in the chemistry and physics of materials at the molecular level.
• Demonstrate advanced laboratory skills to practically realize concepts in the chemistry and physics of materials at the molecular level, and apply these skills in self-directed learning.
• Work safely and effectively in the laboratory to generate reproducible and reliable results.
• Apply modern computational techniques to investigate various physical phenomena and demonstrate proficiency in using mathematical software.

Co-Op Options
Nanoscience co-op is a five year program, which includes five work terms. Below is an example of how the academic and work sequence will look for a Nanoscience major.

*Please note this sequence may change. The current undergraduate calendar will house the most accurate sequence that students must follow. 

Students in this co-op major complete a course, COOP*1100, in the fall semester of second year.  This course helps students prepare for their work term by developing professional attitudes and skills for the workplace. This course also provides students with a toolkit of resume and cover letter writing as well as interview skills, which helps students to apply, interview and secure their work term positions.. 

Combine politics, law and business and explore the unique intersection of the public sector with business and economics. Examine issues like whether government should be run in a more “business-like” manner, and equality and justice in decision-making. Develop transferable business skills in law, human resources, marketing, accounting and finance, and pursue diverse career opportunities within the public, private and voluntary sectors. A great choice for students hoping to pursue law school.