The Faculty of Medicine's Vancouver Summer Program (VSP) is a four-week academic program, offering international students a unique opportunity to experience Canadian health and life sciences at its best.
The program consists of a package of two courses, each course comprising approximately 39 hours of class time. Classes are highly interactive and may include group discussions, guest lecturers, workshops, research projects, laboratory experiments such as a brain anatomy lab, and field trips. As the Faculty of Medicine takes a distributed approach to education, some students can expect to travel to different hospitals or clinical sites for classes or experiential learning such as an ultrasound biopsy simulation workshop.
June 5 - July 5, 2021 Course Packages
Introduction to Clinical Medicine in the Hospital SettingIn this number one choice by VSP Medicine students in the last five years you will visit a large hospital and see the active life of physicians in several specialties as they diagnose and treat patients. Explore a unique hands-on experience and visit the Emergency Room, Laboratories and other areas. Learn how to resuscitate patients in cases of emergency, and use quality simulators to do intubation, defibrillation, managing airways and intravenous lines. Learn how to take history and conduct a physical exam - and work with physician-educators to acquire skills that focus on cardiac, respiratory and neurological systems. Discuss hospital cases in a wide spectrum of diseases, present patient cases of acutely ill and injured patients such as those with a myocardial infarct or car accidents, as well as chronically ill patients such as those with rheumatoid arthritis. In small group learning style discuss common emergency complaints such as fever, abdominal pain and rash to learn foundation of medicine.
Introduction to Scientific Research in the Hospital Setting
Review the scientific basis for research in biology, pharmacology and disciplines of medicine and explore methods to learn advanced clinical (hospital and clinic based) study designs. Learn from senior doctors, investigators and scientists how to discover better treatments for severely ill patients and acute emergencies, discuss ethical conduct of studies in children and neonates, how to recruit patients and what can be done to improve patient care through scientific studies. The course is providing students with solid foundation to appraise primary literature in clinical disciplines including medicine. This course was oversubscribed for five years because it offers you exposure to senior and experienced doctors who do such research in a large hospital. Learn to read English medical literature and have an opportunity to discuss research opportunities in cases of emergency, chronic diseases and cancer. With other students and a doctor-mentor in a small group you will develop a research proposal that can be implemented in the future.
Introduction to Rehabilitation and Living with Physical Disabilities in the CommunityThe World Health Organization has identified a critical need for comprehensive health and social programs to address the “global burden” of chronic illness and disability. This course explores long-term conditions and their effect on participation in everyday life. Learn from Canadian occupational therapy researchers, clinicians, students and clients living with disabilities. Sessions take place in the community, class room and clinical settings. This interactive, case-based curriculum includes topics related to health, illness and disability, the social determinants of health, and populations living with mobility impairments. Sessions include practical training in wheel chair skills, accessibility and universal design.
Introduction to Community Rehabilitation for Mental Health and Invisible Disabilities
Building on the first course, students are introduced to rehabilitation assessments and interventions for managing invisible, long-term conditions in the community. This includes supporting the recovery of adults with mental health issues and addictions, assessing and managing pain, and hi-tech and lo-tech strategies for living with visual impairment. Class room sessions use cases, social media and workshop format to tap creativity and apply the principles presented. Community based sessions enable students to integrate their learning by assessing real-life Canadian situations. The instructional team includes researchers, occupational therapists and clients living with life long conditions.
July 10 - August 10, 2021 Course Packages
Introduction to Clinical Medicine in the Hospital Setting
In this number one choice by VSP Medicine students in the last five years you will visit a large hospital and see the active life of physicians in several specialties as they diagnose and treat patients. Explore a unique hands-on experience and visit the Emergency Room, Laboratories and other areas. Learn how to resuscitate patients in cases of emergency, and use quality simulators to do intubation, defibrillation, managing airways and intravenous lines. Learn how to take history and conduct a physical exam - and work with physician-educators to acquire skills that focus on cardiac, respiratory and neurological systems. Discuss hospital cases in a wide spectrum of diseases, present patient cases of acutely ill and injured patients such as those with a myocardial infarct or car accidents, as well as chronically ill patients such as those with rheumatoid arthritis. In small group learning style discuss common emergency complaints such as fever, abdominal pain and rash to learn foundation of medicine.
Introduction to Scientific Research in the Hospital Setting
Review the scientific basis for research in biology, pharmacology and disciplines of medicine and explore methods to learn advanced clinical (hospital and clinic based) study designs. Learn from senior doctors, investigators and scientists how to discover better treatments for severely ill patients and acute emergencies, discuss ethical conduct of studies in children and neonates, how to recruit patients and what can be done to improve patient care through scientific studies. The course is providing students with solid foundation to appraise primary literature in clinical disciplines including medicine.
This course was oversubscribed for five years because it offers you exposure to senior and experienced doctors who do such research in a large hospital. Learn to read English medical literature and have an opportunity to discuss research opportunities in cases of emergency, chronic diseases and cancer. With other students and a doctor-mentor in a small group you will develop a research proposal that can be implemented in the future.
Pharmacology Through Case Studies
You will experience an integrated approach to learning pharmacology through the use of simulated clinical cases specifically designed to highlight the fundamental principles. Knowledge acquisition from both the scientific and clinical perspectives will be supported through complementary lectures and small group exercises. You will have the chance to design and present your very own case study, incorporating the newly learned pharmacological concepts with your creativity and analytical skills. Through this educational model, you will explore the basic science and clinical applications of cardiovascular, respiratory, gastrointestinal, reproductive, endocrine and autonomic pharmacology, and their integration across multiple related disciplines.
Primary Literature Analysis in Science and Medicine
This course will empower you with an understanding of the scientific method and the important decisions that must be carefully considered in designing, conducting and communicating experimental studies, providing the foundation needed to adequately review and appraise primary literature in any clinical or basic science discipline. The resulting downstream consequences of poor experimental design and interpretation of results in informing (or formulating) evidence-based medicine and public opinion will also be explored. You will learn about the different types of studies that can be used to answer a research question, the major elements of an experiment, and the overall publication process. Through lectures, small group exercises and discussions, you will develop the skills necessary to critically evaluate study research questions, strategies of subject selection and randomization, and proper use of controls. You will learn to identify confounding factors such as inadequate study design, bias, and poor statistical analysis - intentional or not - and describe how they may impact the quality of the study and its conclusions. Finally, you will have the opportunity to practically apply this knowledge through a group critical analysis of literature presentation at the end of the course.
Introduction to Anatomy Using a Hands-on Approach
In this course students will cover foundational functional anatomy and how this relates to 2D and 3D perspectives in diagnostic imaging. Students will learn how systems of the human body are functionally and structurally related to each other. Thoracic anatomy will focus on the cardiovascular and pulmonary systems, abdominal anatomy on the digestive and renal system and pelvic anatomy on the reproductive systems. The musculoskeletal system will put an emphasis on functional aspects such as gait and use of the hand. This course will give a basic foundation in functional anatomy as well as a spatial understanding that will correlate with approaches used in imaging.
Introduction to Medical Imaging: Understanding Radiologic Normal Anatomy and Disease Using Cutting-Edge Technology
This class will provide you with an introductory understanding of the imaging modalities (radiographs, ultrasound, CT and MRI, as well as interventional radiology) used to solve common clinical problems in all body systems. Considerable time will be spent reviewing imaging normal imaging anatomy and demonstrating the critical role that modern imaging plays in common disease, including cardiac, thoracic, abdominal, neurologic, and musculoskeletal disorders. The course will conclude with a presentation entitled: “Top Ten Do Not Miss Cases in Radiology”.
Molecular Mechanisms of Disease
This course will provide an introduction to the molecular basis of disease and the concepts behind novel molecular therapies. Students will gain an understanding of fundamental human biochemical pathways and learn how molecular perturbations in these pathways can lead to disease. Several case-based topics will present research from world-renowned UBC faculty. The course will be taught through a combination of lectures, student presentations and problem-based learning all led by UBC experts. Course content will vary but may include topics such as the role of gut microbiota in health, cancer, diabetes, epigenetics, cardiovascular disease and significant global pathogens. Several novel therapeutic strategies will be discussed and may include genetically engineered gene/cell based therapies, stem cell cures, siRNA based expression control, and nanoparticle delivery systems.
Biochemistry and Society: Current Issues
This course will critically examine biochemical processes within the world at large and their impact on human health. The course will provide students with the scientific principles and concepts required to understand key interrelationships of the natural world and tackle the most daunting challenges of the 21st century. The course will be taught through a combination of lectures, student presentations and problem-based learning all led by UBC experts. Course content will vary but may include topics such as climate change, xenobiotics, endocrine disruptors, pollution by antibiotics and antibiotic resistance genes, and genetically modified organisms. Students will learn to appreciate the natural world from a molecular perspective and understand how biochemical perturbations within our environment impact human health.
Pre-requisites: Students are expected to have a strong background in biology and chemistry at a level equivalent to first year North American undergraduate courses. Students lacking a basic biochemistry background can expect a higher workload compared to students with previous biochemistry knowledge.
Psychiatric Disorders and Their Pharmacological Treatments
This course will cover the major psychiatric disorders that may include schizophrenia, major depressive disorder, anxiety, and bipolar disorder. You will learn from and engage with Faculty experts in each topic through interactive lectures and discussions. Over the duration of the course, you will learn the symptoms and neurobiology of these disorders, and how pharmacological therapies work to treat target symptoms. You will study the pharmacology of these drugs at the molecular level which will provide you with the foundation for understanding their clinical application. Finally, you will learn about treatment strategies using the most up-to-date evidence-based treatment guidelines.
The Science Behind the Mind
This course will offer you an introduction to the mind and basic neuroanatomy emphasizing which brain structures play a role in the generation of normal and abnormal mental states. You will learn about the neurological basis of mental illness, the Mental Status Examination, the relationship of mental state phenomenology to brain function and dysfunction, and the modular nature of the brain structures and functions, all from Faculty experts. Invited guest instructors in various specialties offer perspectives and expertise that may include topics such as neuroimaging, genetics and psychiatry, and neuropsychology. Classes are a combination of interactive lectures and labs, with a possible fieldtrip.
Pre-requisites: This package will be at a level suitable for students who have completed Year 2 of undergraduate studies in Medicine or have equivalent or related coursework in Health Sciences or Psychology.
Mood Disorders and Psychosis
This course will provide you with a broad overview of mood disorders (such as clinical depression and bipolar disorder) and psychosis (where reality testing is impaired, such as in schizophrenia). Mood disorders and psychosis are among the most disabling psychiatric conditions worldwide, due to significant symptoms and functional impairments that can lead to both personal distress and substantial economic burden on society. A major focus of this course will be identification and assessment, and accurate differential diagnosis. Additional topics will include epidemiology, neurobiology, psychosocial factors, and a variety of evidence-based interventions and therapies. Classes are lecture-based with group work and discussions.
Introduction to Psychotherapy
This course will provide you with an introduction to the theory and practice of psychotherapy, focusing on core principles and skills that can be applied across a range of clinical and practice contexts. The course will orient you to the evolution of psychotherapy as an evidence-based intervention for common mental health disorders. You will learn about the common elements of major models of psychotherapy within an integrative context. The course will emphasize integration across different psychotherapy orientations, as well as integration of psychotherapy principles across various helping practices. Thus, the course will introduce basic practical skills such as interviewing, assessment, and building and maintaining a therapeutic alliance––skills that can benefit all helping professionals working in various roles. Lectures will include video demonstrations of psychotherapy and role-playing exercises to develop practice skills.
Pre-requisites: This package will be at a level suitable for students who have completed Year 1 of undergraduate studies in Medicine or have equivalent or related coursework in Health Sciences or Psychology.
Social Determinants of Health
In this course you will broaden your understanding of how social factors, such as skin colour and income, affect population and public health. We will explore the meaning of health and its measurement, and examine what influences the health, well-being and quality of life of individuals, families, communities and nations. You will gain an understanding of the complex pathways through which social circumstances affect health and well-being, and hands-on experience thinking through real world problems. Lectures in class are followed by interactive group activities and trips outside of the classroom to explore health promotion services in Vancouver. This class will bring a new light to your understanding of the factors that affect health, and challenge you to think differently about what we can do as a society to decrease health inequities.
Introduction to Population and Public Health Practice
This course addresses the question of how we can respond to population and public health concerns. It introduces the student to key perspectives and frameworks that are used to inform activities that can improve the health of individuals, families, communities and nations. Potential approaches to preventing disease and improving health, such as a focus on the prevention of disease, screening for disease, the implementation of monitoring and surveillance systems, and the treatment of disease will be covered. Key frameworks such as types of prevention (i.e. primary, secondary, tertiary), and evaluating the cost and effectiveness of activities will also be considered.
Exercise is Medicine
This course will provide an exploration of exercise and physical activity in the treatment of chronic health conditions. Through an exploration of chronic conditions such as arthritis, cancer, cognitive impairment, and cardiovascular disease, students will gain an appreciation of the effects of exercise on brain activation, bone and muscle health, and cardiovascular function. Topics will also include the epidemiology of physical inactivity across the world, measurement of physical activity in chronic disease, the role of health professionals in physical activity management, and mobile technology to promote physical activity in chronic disease. Students will use a variety of interactive methods to understand the content, including case studies, small group tutorials, and problem-based learning.
Recovery from Injury and Disease
This course will introduce students to the science of rehabilitation and recovery from injury and disease. Students will understand how severe injuries and chronic diseases can impact the patient and family, both physically and emotionally. Conditions such as spinal cord injury, concussion, stroke, arthritis, and chronic obstructive pulmonary disease will be used to illustrate the journey through rehabilitation, the road to recovery, and adjustment to disability. Students will be introduced to concepts about the musculoskeletal, cardiovascular, pulmonary, and neurological systems, as well as coping mechanisms and quality of life. In addition, cutting-edge research on novel rehabilitation treatments will be introduced, including visits to leading faculty laboratories. Students will use a variety of interactive methods to understand the content, including small group tutorials and problem-based learning.
Pre-requisites: Undergraduate-level biology or physiology course
Introduction to Medical Laboratory Science
You will explore normal and abnormal biochemistry and physiology of blood and organ systems including the liver, gastrointestinal tract, and kidneys. You will solve medical case studies and diagnose diseases by interpreting patient history information, physical findings, and results of selected clinical laboratory tests. You will participate in case-based learning, team presentations, interactive lectures, and a hands-on blood cell morphology laboratory session in which you prepare and stain blood smears, then distinguish different cells under the microscope. You will also take guided tours of clinical research lab facilities and the David Hardwick Pathology Learning Centre which houses tissue specimens representing a range of pathological conditions. Past students stated they “learned a lot–not only knowledge, but the way to get knowledge…and had lots of fun in this class”. They valued team-work and interacting with instructors who were “very knowledgeable, approachable and kind”.
Fundamental Techniques for Clinical and Medical Research Laboratories
The focus of this course will be to perform methods that are commonly used in hospital and biomedical research laboratories. You will learn through hands-on laboratory sessions and will focus on the following disciplines: molecular biology, cell culture and histochemistry. Experiments you will conduct include DNA finger printing and culturing a mammalian cell line. You will also conduct a series of experiments using different staining techniques and microscopically determine the composition of unknown tissues. Your learning will be supported through demonstrations, discussions of experimental design, data analysis activities and interactive lecture sessions. Past students stated that they "enjoyed extracting and analyzing their own DNA" and that the cell culture labs were "very unique and interesting - something we cannot do in our home country." They were also "excited to analyze their slides and share with others during their histochemistry presentations".
Principles of Body Structure and Function
This course will cover foundational functional anatomy including all major organ systems as well as the musculoskeletal system. Students will learn how the human body develops through the embryonic period to give rise to these systems and how they are functionally and structurally related to each other. Thoracic anatomy will focus on the cardiovascular and pulmonary systems, abdominal anatomy on the digestive and renal system and pelvic anatomy on the reproductive systems. The musculoskeletal system will be covered from a conceptual point of view focusing on the major functions of the upper and lower limbs and the importance of the musculoskeletal system for human form and structure. This course will give a basic foundation in functional anatomy that will help students as they prepare for life and health sciences programs.
Introduction to Clinical Neuroanatomy
This course will offer foundations of the neuroanatomy along with clinical applications. Students will be able to examine real specimens of the central nervous system which aids them to have a better understanding of the structure and function of the different parts of the central nervous system including; spinal cord, brainstem, and cerebrum. During this course student will have the opportunity to see and learn about the spinal nerves and cranial nerves. In addition, they will learn about some major functional features of the central nervous system such as; balance and equilibrium, hearing, speech, eye movements, and cognition.
Data Science Applications in the Medical Sciences
Presenting clear and reproducible data analysis is important for the integrity of scientific research from bench science to clinical trials. Students will be introduced to coding principles with the coding language R which has many popular tools available for analyzing biological data. Working in small groups, students will collaborate on small and large projects using publicly available data, and develop coding and debugging skills. The first half of the course will focus on basic coding foundation, with the second half exploring clinical data in mini-projects and a final group project. By the end of the class students will have a working knowledge of R which will allow them to explore and tackle the many types of life sciences data they may encounter in their future research in a systematic and reproducible manner.
It is expected that students will have a laptop to follow along with the coding in class. No previous coding experience required.
By the end of this course, students will be able to appreciate the complexity of human physiology. In each disease theme, we will start with how the body functions normally and then explore the changes that make up abnormalities and how these changes lead to physiological diseases. Students will work in small groups throughout the course to collect data that they will then have a chance to analyze in the accompanying data science course. By the end of this course students will have a concrete understanding of how to use equipment commonly used to evaluate physiological diseases and complete case studies based on current research.
Biological Aspects of Aging
This course will provide an exploration of the biological underpinnings of aging and their individual and societal implications. It will give an introduction to the influence of normal aging on organs, cells, tissue, and chemical messengers and how these changes impact an individual’s function. The impact of common age-related chronic conditions, such as osteoporosis, cerebrovascular disease, type 2 diabetes, and dementia will be discussed as they pertain to the global burden on healthcare systems. Students will use a variety of interactive methods to understand the content, including small group lectures, group presentations, and case studies. The group presentation component will provide students with the opportunity to practice critical appraisal of biological aging research through both an oral presentation as well as through peer-evaluation. Students will also visit several state-of-the-art research laboratories at the Center for Hip Health and Mobility, where they will be provided with hands-on experience.
Clinical Aspects of Aging
This course will provide an introduction to clinical aspects of aging as well as factors that promote healthy aging, such as reducing cognitive decline, mobility disability, and falls. It will present an overview of age-related peripheral and central nervous system changes that contribute to cognitive and mobility impairment. It will also outline various preventative strategies to mitigate the effects of aging and age-related diseases, such as exercise, stress reduction, sleep promotion, and cognitive enrichment. Students will gain an understanding of how to implement these preventative strategies using novel knowledge translation interventions such as telehealth approaches. Students will use a variety of interactive methods to understand the content, including small group lectures, group presentations, and case studies. The group presentation component will provide students with the opportunity to practice critical appraisal of clinical aging research through both an oral presentation as well as through peer-evaluation. Students will also visit several state-of-the-art research laboratories at the Center for Hip Health and Mobility, where they be provided with hands-on opportunities.
Typical and Impaired Communication Across the Lifespan
This course will provide an overview of human communication skills. It will outline typical patterns of language development and changes across the lifespan, and will also describe developmental and acquired communication impairments. Students will be exposed to key concepts in the fields of audiology and speech-language pathology in order to gain a broad understanding of communication science, and the roles speech-language pathologists and audiologists play in serving the community. Topics will include developmental language delay, communication impairment in autism, hearing loss, aphasia, and motor speech impairments, amongst others. Through videos, guest speakers with communication impairments, and engagement with practicing clinicians, students will gain familiarity with common communication impairments.
How Technology is Changing the Way We Communicate
This course will explore the idea that modern technology is having a profound effect - both positive and negative - on the ways we communicate, and on our very ability to communicate. Students will learn about the impact of modern technology on childhood language development, on hearing health, and on populations with speech and language impairments. They will also investigate the ways in which technology is being harnessed to enhance treatment and expand communication between health care practitioners and their patients. Topics will include hearing assessment for infants, the effects of screen time on language development, cochlear implants, high tech assistive communication devices, the use of biofeedback devices in speech therapy, high fidelity patient simulation, and telehealth, amongst others. Students will have the opportunity to interact with cutting edge communication technology.
Emergency medicine is distinct in its focus on interpreting and diagnosing the cause of patient symptoms when they present with urgent or immediate need. A patient does not arrive saying they are having a heart attack; they usually arrive saying they are having chest pain. It is up to the emergency physicians to decide if this is: a) one of the life threatening causes of chest pain (myocardial infarction, pulmonary embolus, aortic dissection, tension pneumothorax); or b) one of the many non-life-threatening causes of chest pain (costo chondritis, chest wall muscle pain, pericarditis, pleurisy, esophagitis).
Students will learn the foundations of the practice of Emergency Medicine: the diagnostic process. Learners will be exposed to a wide variety of clinical emergency scenarios and will be led through the process of interpreting and diagnosing the cause of patient symptoms.
Treatment for Common Emergencies and Principles of Research Study Design in the Emergency Setting
Students will review common presentations encountered in the emergency room and gain an understanding of the approach to the treatment of patients along with potential challenges and concerns. Students will get simulated experience such as intubating an airway; a cricothyrotomy (surgical airway); inserting a needle or chest tube to treat pneumothorax; providing chest compressions (CPR); use of an automated external defibrillator for fatal heart rhythms; treatment of opioid overdose; administering epinephrine for anaphylactic shock; basic suture techniques; casting of upper and lower limbs; reduction of dislocated joints, and use of ultrasound for diagnosis and procedures.
Students will also be taught simple concepts of research study design within the constraints of the emergency room. They will have an opportunity to work through a specific research hypotheses and development of a feasible study design that will take into account the critical nature of the illness.
Introduction to Ob/Gyn and Women's Health
Students will be introduced to the subject of human reproduction and women's reproductive health over the life span. The course will cover both foundations of physiology and clinical aspects of care. Embedded Case-based learning (CBL) cases will provide insight into the biology and physiology of reproduction from embryonic development and conception, pediatric gynecology, to menopause and cancer. Teaching will be provided by scientists as well as clinicians.This interactive course will highlight the many advances in this specialty. A tutorial on how to use technology to access the most relevant literature to solve a problem will be presented.A wide exposure to common clinical challenges in the field will be achieved through didactic lectures augmented by student led presentations using CBL. Teams of students will be tasked with a clinical scenario to research and present to their fellow students at the end of each course. Hands on learning will be provided in sessions.
Exploring the Specialty of Obstetrics and Gynecology
This module builds upon the foundations of the first course and provides a deeper and more comprehensive exploration of this speciality. It will incorporate exposure to leading edge research and clinical facilities with visits to different world class laboratories, a tour of a fertility clinic laboratory and some hands-on learning in a surgical training laboratory at the Centre of Excellence for Simulation Education and Innovation (CESEI).
Students will expand their knowledge and further understanding of subspeciality medicine in Women's Health / Obstetrics and Gynecology with lectures from areas such as Reproductive Endocrinology, Gynecological Oncology, Pediatric Gynecology, Maternal Fetal Medicine, Urogynecology, Sexual Medicine, Infectious disease, and Neonatology.
Genetics and Genomics at the Intersection of Society, Ethics, and Healthcare
This course provides foundational knowledge of genetic and genomic applications in healthcare. Students will be introduced to the key concepts of test interpretation and test utility, including the value, limitations and applications of different types of genetic tests across a range of disorders. Working independently and in small groups, students will be able to utilize an objective lens to analyze genetic information from a variety of sources including direct to consumer websites. Building on this knowledge, students will gain insight into the lived experience of patients and families living with certain genetic conditions, and explore the potential impact of genetic testing across family members. Students will apply this knowledge to debate either side of classic controversial issues in medical genetics and will be able to critique the ethical, familial and societal impacts of genetic testing.
Approaches to Genetic Disorders from a Genetic Counselling Perspective
This course builds on the foundations learned in the first course, as the students apply their knowledge to an in-depth examination of four different disorders with a genetic component from the genetic counselling perspective. Working first independently and later as a group, students will be asked to consider clinical, familial, psychosocial and societal implications for genetic testing and screening as they work through online cases on Down syndrome, phenylketonuria, and bipolar disorder. Cases are presented from an interprofessional, multidisciplinary perspective in order to build an understanding of the varied roles and responsibilities of health care professionals across the continuum of care. Working in small groups, students will select a disorder of their choosing and present their case example to the class for group learning and discussion.
Understanding Musculoskeletal Injuries and Conditions Through Engineering
From congenital hip dysplasia to spinal cord injuries in mountain bikers: you will learn about common musculoskeletal conditions and traumas, starting with the root cause. In this first course, you will explore the mechanisms behind how excessive forces and acceleration affect various parts of the human body. Students will hear from surgeons, sports medicine researchers and biomedical engineers on how these injuries and conditions occur. In interactive labs, students will explore injury mechanisms through destructive testing of artificial bones and see high-speed impact testing rigs in action. Students will also work in teams to research and present a musculoskeletal injury/condition and the corresponding treatment(s).
Pushing Boundaries: Innovations Through Collaborations
Building on the first course, students will explore the pathways to improving the standard of care (or preventing injuries) through collaborative innovations. This course will introduce the Biodesign Innovation Process, a tool commonly used to guide collaborative effort between engineers and practitioners. You will learn to conduct an innovation cycle, consisting of designing, prototyping, and testing a solution. Students will hear from leading researchers that have challenged what is possible - from novel surgical techniques to the next generation of sport helmets. Hands-on labs will take place at the Centre for Hip Health and Mobility, where students be introduced to cutting-edge innovation tools employed by engineers, including rapid prototyping techniques and machine learning algorithms.
"It was one of the best experiences of my life! I had amazing classes, with amazing professors at UBC, met people from many different countries, and could see what it is like to study abroad."
"I think that the VSP was a great opportunity for students to expand their knowledge and gain good connections. It was overall a surreal experience for me and I bet that it was the same for my other mates. It is an experience that I will surely treasure, and I will never get tired of telling stories about my one month in UBC and Vancouver."
- International students studying medicine or related sciences (typically in their first 2-3 years of undergraduate studies)
- Participants must be proficient in English
- Participants must be current students enrolled in a non-Canadian educational institution for the duration of the VSP, and have a strong academic background
UBC Faculty of Medicine