- HBA · 4 years
- Work experience details
- ~High 80s to low 90s



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Work experience
Paid co-op on eligible upper-year routes
McMaster Faculty of Science paid co-op pathwaysEntering average
Published approximate guidance: Mid 90s. Guidance checked November 2026. Anticipated admission average for first-year Life Sciences Gateway. Later specialization has separate requirements.
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2027 entry
School deadline, not a student task. Universities receive these grades by November 26. Verbatim: "Deadline for the OUAC to receive all midterm or final grades available for 4U/M courses from Ontario high schools. Schools may report in-progress grades for full-year courses as soon as they are available." Universities receive these by the target date of November 26, 2026. This is a deadline on the high school, not on the student, but it governs which grades a university sees in the first round.
Verbatim: "There is no specific Undergraduate application deadline if you are a Group B applicant. Deadlines vary at each university and sometimes depend on the program. Visit the university websites or contact the universities directly for their deadlines. If you are interested in a program but the deadline has passed, you may contact the university's admission office for help. Be aware of university-specific deadlines for submitting transcripts and portfolios, if required, and for arranging interviews and auditions. You must ensure the OUAC has enough time to process your choices before the universities' program deadlines." OUAC defines Group B as anyone who does not meet the Group A criteria, e.g. not currently taking an Ontario high school course, a Canadian outside Ontario, an international applicant, a postsecondary transfer student, or a mature applicant.
Entry terms · Fall
September 2027 first-year entry through OUAC code MLS.
McMaster Fall 2027 admission selector for Ontario high-school applicantsOntario high-school applicants entering Life Sciences Gateway (MLS) in 2027/28. Applies only to the named entry route; later major declaration is separate.
Ontario high-school applicants entering Life Sciences Gateway (MLS) in 2027/28. Applies only to the named entry route; later major declaration is separate.
Ontario high-school applicants entering Life Sciences Gateway (MLS) in 2027/28. Applies only to the named entry route; later major declaration is separate.
Ontario high-school applicants entering Life Sciences Gateway (MLS) in 2027/28. Applies only to the named entry route; later major declaration is separate.
Ontario high-school applicants; exact programme prerequisites remain controlling
Ontario applicants who do not meet the published English-proficiency requirement
Anticipated admission average for first-year Life Sciences Gateway. Later specialization has separate requirements.
McMaster Life Sciences Gateway: anticipated admission averageHonours Life Sciences co-op admits eligible students after Level II and schedules four work terms across Levels III–V. The Origins of Disease and Sensory Motor Systems specializations do not offer this co-op option.
McMaster 2026–27 Honours Life Sciences co-op admission and sequenceMLS is a one-year gateway. Students rank eligible Level II programs after first year. Honours Life Sciences, Psychology, Neuroscience and Behaviour and other majors each have their own requirements.
BSc
Study living systems and select courses in areas such as cells, genetics, physiology and biodiversity.
Separate study choices within this entry program. Each course block belongs to its named choice; it is not required of every student in the degree.
Named courses in the selected current requirements and choice menus. Alternatives are included; not every listed course is mandatory. The PDF is the university’s abridged advising edition. Life Sciences Gateway:30 recommended first-year units selected for the intended Level II programme. Honours Life Sciences:120 units; no more than 48 units at Level I. Choose the recommended 30 Level I units for the intended major. Without Grade 12 Calculus and Vectors, complete MATH 1F03. Without Grade 12 Chemistry, CHEM 1R03 is the prerequisite for CHEM 1A03. Honours Life Sciences requires 120 units with no more than 48 at Level I.
Learn differential calculus and vector geometry, including exponential and trigonometric functions.
Learn introductory chemistry without requiring Grade 12 chemistry.
Explore bonding, chemical reactions and energy, with laboratory applications.
Complete training in laboratory safety practices and hazardous-materials information.
Complete biosafety training for work with bacteria, cell lines and biological materials.
Use laboratory methods to examine cell structure, molecular composition and function.
Explore cell structures, their molecular components and how they function.
Study how molecules and cellular structures support biological functions.
Study evolution, ecology and the diversity of living organisms.
Explore psychological research methods, questions and major subject areas as an elective.
Explore sensory systems and survival-related behaviour as an introductory psychology elective.
Study scientific approaches to higher-order psychological processes and interpersonal behaviour.
Explore sensory systems and behaviours important to survival in psychology and neuroscience.
Learn calculus for science, including derivatives, optimisation and integration.
Apply calculus, differential equations and dynamical systems to life-science problems.
Study forces, energy, mechanics, waves and fluids through scientific applications.
Explore linear mechanics, conservation laws, harmonic motion and fluids using calculus.
Study forces, energy, mechanics, waves and fluids through online teaching and laboratories.
Explore Earth's materials, plate tectonics and environmental processes, with field trips.
Explore sustainability and environmental issues through soil, climate and water science.
Explore gene structure, inheritance, chromosome function and genetic mapping.
Study gene structure, inheritance, chromosome function and genetic mapping.
Explore a supervised research project through laboratory, field or literature work.
Complete a supervised research practicum using laboratory, field or literature methods.
Complete a supervised research or creative project in science communication.
Use laboratory inquiry to study behavioural, cellular and molecular aspects of human disease.
Investigate synaptic transmission and its roles in sensation, memory and disease.
Investigate a life-science topic through literature, data analysis and collaborative scientific communication.
Create inclusive science communication for different audiences, purposes and settings.
Communicate science for professional audiences and examine its influence on public perceptions.
Collaborate with community partners on initiatives for more sustainable cities.
Trace physiological changes from healthy tissues to disease and its management.
Explore cellular and system-level mechanisms of nervous-system disease.
Build computational models that connect life-science hypotheses with experimental questions.
Explore human reproductive behaviour through endocrinology, evolution and science communication.
Study epidemiology, clinical study design, disease-risk measures and diagnostic testing.
Apply mechanical principles to the human musculoskeletal system.
Explore movement control through neurophysiology, cognition and dynamical systems.
Explore cellular responses to biochemical and physical signals using cell-biology methods.
Examine metal toxicity and environmental, social and political factors affecting exposure.
Investigate global-health threats through disease mechanisms, social factors and science communication.
Study radioisotopes and radiotracers in research, diagnosis and treatment.
Study genetic and epigenetic influences on health disparities through cases and current research.
Explore selected life-science subjects through small-group study.
Study plant physiology, photosynthesis, mineral nutrition and water transport.
Use field laboratories and data analysis to study ecological systems.
Study respiration, circulation, acid-base regulation and kidney function.
Develop experimental design, research, data-analysis and scientific-communication skills.
Collect, organise, visualise and analyse complex scientific datasets.
Explore selected life-science topics through small-group laboratory study.
Develop a research question, apply biostatistics and write a scientific manuscript.
Investigate cellular and molecular biology through laboratory inquiry and research techniques.
Explore genetic and molecular advances through classical experiments and animal model systems.
Design interactive learning workshops for young people through community-engagement practice.
Deliver inquiry-based workshops for Hamilton youth and practise research communication and leadership.
Develop design, dialogue and project-management skills through Hamilton's CityLAB challenges.
Apply interdisciplinary teamwork to real CityLAB projects with city staff and community partners.
Practise ecological, Earth and environmental field-investigation methods during an interdisciplinary field camp.
Explore clinical research and create educational materials for patients and the public.
Use interdisciplinary design thinking to investigate health challenges and prototype solutions.
Explore strategic foresight and develop plausible future health scenarios in interdisciplinary teams.
Combine academic study with a supervised community, volunteer or professional placement.
Learn peer-mentorship methods and apply them while supporting junior science students.
Conduct an independent research study with faculty supervision.
Complete an independent supervised thesis project.
Complete an independent thesis under faculty supervision.
Integrate academic study with a supervised community, volunteer or professional placement.
Explore clinical neuropsychology through brain anatomy, damage case histories and assessment methods.
Develop mentorship, leadership, reflection and communication through theory and practical peer support.
Explore sustainability leadership and strategy through interdisciplinary study and community projects.
Explore the origins of space-time, elements, stars, planets and galaxies.
Explore physical methods for studying molecules, cells and biological processes.
Examine scientific and social responses to challenges such as climate change, AI and warfare.
Explore sustainable chemistry while developing scientific literature, writing and presentation skills.
Analyse biological samples using quantitative chemistry, spectroscopy and chromatography.
Learn C/C++ scientific programming under Linux through a research project.
Study Earth's geological history and evidence for the evolution of marine life.
Analyse representations of health through literary, cultural and interdisciplinary critical approaches.
Study soil properties and their implications for land use and environmental change.
Compare approaches to environmental problems at local, national and global scales.
Explore disability, chronic illness and ageing through research, policy and practice perspectives.
Learn epidemiological study design, health measurement, statistical analysis and sources of bias.
Examine how natural and technological disasters have shaped societies and historical understanding.
Explore how academic evidence, history, controversy and perspectives shape knowledge across disciplines.
Explore tissue development and nervous, skeletal and muscular anatomy through online learning.
Develop quantitative reasoning and problem-solving for everyday, social and environmental questions.
Study radiation physics in medical imaging, cancer treatment, dosimetry and protection.
Develop clinical-research methods and critically evaluate medical-radiation literature.
Use clinical cases to explore genetic and environmental influences on the visual system.
Examine the health, social and economic impacts of infectious disease and barriers to eradication.
Explore how racism and bias have shaped scientific thought, medicine and access to health care.
Use storytelling to communicate science across cultures and audiences.
Investigate advanced topics linking environmental change with human health.
Explore molecular mechanisms of regeneration and current methods for studying them.
Investigate selected advanced life-science topics through seminar discussions.
Analyse media portrayals of science and produce evidence-based scientific reporting.
Explore microbes in the human body and their roles in health and disease.
Explore selected advanced life-science topics in a small-group seminar.
Explore selected advanced life-science topics in a small-group seminar.
Explore selected advanced life-science topics in a small-group seminar.
Investigate early scientific activity and how language, culture and society shaped it.
Explore selected advanced life-science topics in a small-group seminar.
Study disease mechanisms, cellular miscommunication and the design of targeted treatments.
Explore clinical uses of nutrition in disease prevention, management and different life stages.
Explore reproductive and hormonal health across the lifespan through neuroscience and behaviour.
Apply biomechanics to occupational, clinical and sporting movement problems.
Practise scientific investigation, hypothesis testing, data interpretation and research communication.
Use experimental methods and model organisms to investigate human-health research questions.
Practise written, visual and oral science communication for different audiences.
Apply inferential statistics to environmental and life-science data using statistical software.
Study cell structure, transport, signalling and specialised cell functions.
Explore neural signalling, synapses, neurotransmitters and nervous-system development through case studies.
Examine how selection pressures shape human and animal behaviour.
Study how nutrients interact with physiology to influence health and disease risk.
Explore links between environmental change and human health through case studies.
Current PNB department course menu plus published BSc entry-course choices after Level I. The BSc specialization begins after a Level I programme; these alternatives are not one mandatory first-year timetable. The calendar is the university’s 2026/27 abridged advising edition. Honours PNB BSc: 120 units total, with no more than 48 at Level I. Level I is 30 units; the remaining Science I choices and electives must fit the intended programme.
Use Python for experimental-psychology data analysis, plotting and task automation.
Participate in supervised research projects in a PNB laboratory.
Explore how people sense, perceive, evaluate and act on the world.
Study neurons and the neural circuits supporting sensation and movement.
Explore shared animal behaviours through evolution, genetics and cognition.
Connect psychology, neuroscience and behaviour topics while developing scientific writing skills.
Learn experimental design, statistical description and data visualisation using software.
Read and discuss scientific papers and attend psychology and neuroscience research seminars.
Complete the tutorial supporting progression through Honours PNB programmes.
Explore brain-imaging methods and practise image processing through programming exercises.
Design perception experiments, analyse data and communicate findings through collaborative research.
Trace philosophical and physiological influences on the development of psychology.
Investigate current neurobiology problems through seminars and laboratory work.
Conduct group cognitive-neuroscience experiments with emphasis on research design and communication.
Complete a faculty-supervised library research project.
Undertake supervised research within the mental-health community.
Complete a supervised laboratory research project.
Study different species through laboratory and field investigations.
Collaborate with community partners on outreach, education, research or resource development.
Conduct experiments in human memory and cognition, including design, analysis and communication.
Develop scientific-writing and mentoring skills while supporting second-year PNB writers.
Study advanced statistical models, regression, variance analysis and factor analysis.
Explore standardised psychological assessments, interviewing, interpretation and report writing.
Conduct an individual research project under faculty supervision.
Conduct an individual research project under faculty supervision.
Explore research on social identity, bias, empathy and dehumanisation.
Develop investigation skills in selected psychology, neuroscience and behaviour areas.
Develop collaborative inquiry projects connecting PNB knowledge with society and multimedia communication.
Complete a faculty-supervised library research project.
Complete a supervised laboratory research project.
Complete a supervised laboratory research project across both terms.
Develop critical writing that translates scientific research for popular media.
Explore sensory systems and survival-related behaviour as an introductory psychology elective.
Explore sensory systems and behaviours important to survival in psychology and neuroscience.
Learn calculus for science, including derivatives, optimisation and integration.
Apply calculus, differential equations and dynamical systems to life-science problems.
Use laboratory methods to examine cell structure, molecular composition and function.
Study how molecules and cellular structures support biological functions.
Explore cell structures, their molecular components and how they function.
Study evolution, ecology and the diversity of living organisms.
Explore bonding, chemical reactions and energy, with laboratory applications.
Explore physics in medical imaging, diagnosis, therapy and biological systems.
Study forces, energy, mechanics, waves and fluids through scientific applications.
Explore linear mechanics, conservation laws, harmonic motion and fluids using calculus.
Study forces, energy, mechanics, waves and fluids through online teaching and laboratories.
Life Sciences
Published first-year choices. Prerequisites and the intended Level II degree determine selection.
Learn differential calculus and vector geometry, including exponential and trigonometric functions.
Learn introductory chemistry without requiring Grade 12 chemistry.
Explore bonding, chemical reactions and energy, with laboratory applications.
Complete training in laboratory safety practices and hazardous-materials information.
Complete biosafety training for work with bacteria, cell lines and biological materials.
Use laboratory methods to examine cell structure, molecular composition and function.
Explore cell structures, their molecular components and how they function.
Study how molecules and cellular structures support biological functions.
Study evolution, ecology and the diversity of living organisms.
Explore psychological research methods, questions and major subject areas as an elective.
Explore sensory systems and survival-related behaviour as an introductory psychology elective.
Study scientific approaches to higher-order psychological processes and interpersonal behaviour.
Explore sensory systems and behaviours important to survival in psychology and neuroscience.
Learn calculus for science, including derivatives, optimisation and integration.
Apply calculus, differential equations and dynamical systems to life-science problems.
Study forces, energy, mechanics, waves and fluids through scientific applications.
Explore linear mechanics, conservation laws, harmonic motion and fluids using calculus.
Study forces, energy, mechanics, waves and fluids through online teaching and laboratories.
Published level allocation, with alternatives included. This is not a weekly timetable.
Practise scientific investigation, hypothesis testing, data interpretation and research communication.
Use experimental methods and model organisms to investigate human-health research questions.
Practise written, visual and oral science communication for different audiences.
Apply inferential statistics to environmental and life-science data using statistical software.
Explore gene structure, inheritance, chromosome function and genetic mapping.
Study cell structure, transport, signalling and specialised cell functions.
Explore neural signalling, synapses, neurotransmitters and nervous-system development through case studies.
Examine how selection pressures shape human and animal behaviour.
Study how nutrients interact with physiology to influence health and disease risk.
Explore links between environmental change and human health through case studies.
Create inclusive science communication for different audiences, purposes and settings.
Communicate science for professional audiences and examine its influence on public perceptions.
Psychology, Neuroscience & Behaviour
Choose 3 units with at least B-. PSYCH 1XX3 is recommended. PNB selection follows completion of a Level I programme; meeting the minimum does not guarantee a place.
Explore sensory systems and survival-related behaviour as an introductory psychology elective.
Explore sensory systems and behaviours important to survival in psychology and neuroscience.
Complete 3 units from these calculus options for admission to Level II Honours PNB BSc.
Learn calculus for science, including derivatives, optimisation and integration.
Apply calculus, differential equations and dynamical systems to life-science problems.
Complete 6 units from these options. BIOLOGY 1A01 and 1A02 together substitute for BIOLOGY 1A03 and should be taken in the same term.
Use laboratory methods to examine cell structure, molecular composition and function.
Study how molecules and cellular structures support biological functions.
Explore cell structures, their molecular components and how they function.
Study evolution, ecology and the diversity of living organisms.
Complete at least 3 units from the published science options for admission. CHEM 1A03 and a physics option are both required by the end of Level II and recommended in Level I. The degree table also references BIOPHYS 1S03; its current standalone course entry has not been verified.
Explore bonding, chemical reactions and energy, with laboratory applications.
Explore physics in medical imaging, diagnosis, therapy and biological systems.
Study forces, energy, mechanics, waves and fluids through scientific applications.
Explore linear mechanics, conservation laws, harmonic motion and fluids using calculus.
Study forces, energy, mechanics, waves and fluids through online teaching and laboratories.
MLS is a one-year gateway. Students rank eligible Level II programs after first year. Honours Life Sciences, Psychology, Neuroscience and Behaviour and other majors each have their own requirements.
Career examples have not been verified for this page.
Official program page
Life Sciences
2026–27 · Full-time first-year calculator estimate · CAD
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University calculator estimates · Ancillary fees excluded
Housing and meals are outside this estimate.
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