Bachelor of Arts (Honours) in Food Agricultural and Resource Economics (Co-op)

at University of Guelph Canada

The growth in transnational and transcontinental connectedness has emphasized the need for a multi-disciplinary and comparative approach to culture, society, history, politics, and trade, and has created a demand for graduates with language and management knowledge and overseas experience, particularly in Europe.

Our program in European Studies will prepare you for a career in Canadian-European relations. You will concentrate on German, French, Italian or Spanish and choose among history, political science, literature, art history, administration, economics, and business courses in an area of emphasis in either culture and civilization or business. You can also gain cultural immersion in a study year in Europe.

In this major, students will acquire the management education needed to succeed in the dynamic and innovative food and agribusiness industries. Building on an understanding of economic theory and applied methods in both the Canadian and the global context, the program prepares graduates with technical, entrepreneurial and leadership skills for a variety of professional opportunities in industry, government agencies and non-governmental organizations. The major provides a complete foundation for further studies leading to a graduate degree or professional accounting designation.

A principal aim of the Co-op program in Food and Agricultural Business 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 Food and Agricultural Business 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. 

The Bachelor of Indigenous Environmental Science and Practice (BIESP) is an interdisciplinary science degree that focuses on the development of leaders in areas of environmental science, land-use and policy development who are grounded in Indigenous ways of knowing and being. This science degree emphasizes the respectful and consensual braiding of Indigenous and Western knowledge systems to address complex environmental issues and challenges. It focuses on the responsible use and protection of the natural environment through practices based on Indigenous ways of knowing and doing and the practice of Indigenous land ethics grounded in Indigenous epistemologies, ontologies, traditions and aspirations. By explicitly recognizing the inherent validity and value of Indigenous ways of knowing and doing, this interdisciplinary program offers a critical, yet constructive, view of environmental science, grounded in Indigenous knowledge systems, methodologies, priorities and values and oriented towards concrete action. In addition to their studies of natural and applied science, students will examine the historical and contemporary relationships between Indigenous and non-Indigenous peoples in Canada and the legal, political and economic context of environmental science and practice.  

Experiential learning is incorporated into each year of study through opportunities to interact and work directly with Indigenous communities and organizations supporting cross-cultural learning and practice. In the final year, students will conduct a group project that focuses on a current environmental issue and provides the opportunity to obtain realistic experiences within the interdisciplinary context of practicing environmental science with Indigenous communities. The BIESP is also offered as a co-op option. 

Learning Outcomes
Graduates of the BIESP degree will have demonstrated they can:

• Build awareness of Indigenous cultural frameworks of environmental science including the role of traditional knowledge keepers, right relations, multi-generational environmental stewardship, and inclusion of non-human beings. 
• Consider the implications of historical and contemporary relationships between Indigenous and non-Indigenous communities in influencing governance, practices, policies, interactions and decision making in environmental science and practice. 
• Apply a critical and decolonial lens to the existing approach to environmental science and practice in Canada through the exploration of Indigenous principles, aspirations and practices while cognizant of the historical and ongoing legacy of colonization, land dispossession, and intergenerational trauma. 
• Apply the evolving legal frameworks of Indigenous and non-Indigenous environmental science, which include Indigenous People’s inherent, treaty and constitutionally-protected rights, historic and contemporary lands, the minimal standard of free, prior, and informed consent, duty to consult and Indigenous-led practices of protection and restoration of special places and community well-being, to environmental stewardship.  
• Bridge and braid Indigenous and Western knowledge systems to propose and evaluate answers and solutions to environmental questions.  
• Formulate relevant and testable research questions, develop and implement an effective method of inquiry and perform appropriate quantitative and qualitative analyses for use in evidence-based environmental planning, policy development and implementation across different knowledge systems from Indigenous and Western research paradigms and methodologies.  
• Utilize techniques and skills including mapping and GIS, data classification, spatial analysis, map design, Indigenous research methodologies and environmental risk assessment practices to analyze environmental management issues across different knowledge systems. 
• Demonstrate project management skills (leadership, negotiation, communication, problem-solving, decision-making, time and task management, and budgeting) to effectively work within a team to complete multifaceted projects related to environmental management, research, and community engagement. 
• Communicate ideas, arguments and analyses to Indigenous and non-Indigenous audiences accurately and effectively, recognizing the role of language, personal values, strengths and limitations, and respecting diverse perspectives.  
• Demonstrate moral maturity and intercultural competency by considering diverse perspectives on environmental issues and Indigenous world views when acting as a professional and community member in decision making processes related to topics of land use, conservation, sustainability and environmental remediation and restoration. 
• Critically reflect on their personal values, academic and professional goals and determine how they can continue to respectfully engage and sustain relationships with Indigenous and non-Indigenous communities to address environmental challenges utilizing both Indigenous and Western scientific knowledge systems and ethical protocols. 
• Appreciate and support the needs and priorities of Indigenous communities to promote respect, protect and sustain Indigenous knowledge and practice in Indigenous communities.

For the benefit of hybrid learning, physics and chemistry are combined in this major, which includes classes in such areas as materials science and the quantum mechanical basis of molecular structure. Working in the laboratory with state-of the- art equipment, you will acquire the skills and knowledge of a variety of techniques, including x-ray diffraction and nuclear magnetic resonance.

Computers play many roles in our lives. At the School of Computer Science, we recognize that relationship and its variable nature. If you enjoy solving problems, nothing is more exciting than working and studying at the leading edge of computer science.  You will develop skills throughout your degree as you explore different course materials within the field of computer science and across other disciplines. The program provides you with a strong foundation in hardware and theory with a particular focus on applied software development. By the time you graduate you will be a sought-after expert with interdisciplinary knowledge and skills that will make you indispensable.

Software Engineering
Contribute to innovative and cutting-edge software design. Providing a foundation in computer science concepts, this program focuses on team-based software development and professional standards. This major provides an excellent background in design and development, as well as the implementation and the evolution of software. Students’ soft skills such as communication and teamwork will be enhanced and strengthened. You will have a unique opportunity to take courses on different aspects of software engineering, including design methods, team interactions, communications and managing real-world software engineering projects.

Become an expert on a current major global issue—the natural production of food and upon graduation, enter a workforce where there are more jobs than qualified people to fill them. Explore all areas of agriculture, resources, and applied economics. Study courses in food, hunger and poverty, economics of the agri-food system, and international trade. Prepare yourself for related graduate programs and to become a decision maker and strong leader in the agri-food sector and public agencies.

With an emphasis on mathematical foundations during early semesters, students will gain the advanced mathematical agility required to work in modern theoretical physics. Apply special expertise to fields as diverse as black-hole structure calculations, theory of superconductivity, the physics of nuclei and neutron stars, or stock market analysis.

The theortical physics major has small class sizes to support student learning from internationally renowned, award-winning faculty and researchers. As a result, students graduate with exceptional laboratory experience and this program has a high rate of student award reception and authoring/co-authoring papers in respected physics research journals such as Journal of the Royal Astronomical Society of Canada, Physical Review, and others.

Students take an integrated MATH and PHYS course in first year along with the chemistry and biology taken by other science students. Second through fourth year, students will focus on physics courses but will include mathematics courses as well, giving them the skills needed to understand the fundamental basis of topics such as black holes, the internal quark structure of protons and neutrons, and the underpinnings of high-temperature super-conductivity. 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

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.

Understand the geographical, political and economic factors that shape environmental issues. Learn how to identify and manage these issues across sectors. Address environmental challenges through creative partnerships between governments, communities and businesses. Train to be an environmental professional at the leading edge of sustainability.

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.