Applicants to UBC have access to a variety of funding options, including merit-based (i.e. based on your academic performance) and need-based (i.e. based on your financial situation) opportunities.
From September 2024 all full-time students in UBC-Vancouver PhD programs will be provided with a funding package of at least $24,000 for each of the first four years of their PhD. The funding package may consist of any combination of internal or external awards, teaching-related work, research assistantships, and graduate academic assistantships. Please note that many graduate programs provide funding packages that are substantially greater than $24,000 per year. Please check with your prospective graduate program for specific details of the funding provided to its PhD students.
All applicants are encouraged to review the awards listing to identify potential opportunities to fund their graduate education. The database lists merit-based scholarships and awards and allows for filtering by various criteria, such as domestic vs. international or degree level.
Many professors are able to provide Research Assistantships (GRA) from their research grants to support full-time graduate students studying under their supervision. The duties constitute part of the student's graduate degree requirements. A Graduate Research Assistantship is considered a form of fellowship for a period of graduate study and is therefore not covered by a collective agreement. Stipends vary widely, and are dependent on the field of study and the type of research grant from which the assistantship is being funded.
Graduate programs may have Teaching Assistantships available for registered full-time graduate students. Full teaching assistantships involve 12 hours work per week in preparation, lecturing, or laboratory instruction although many graduate programs offer partial TA appointments at less than 12 hours per week. Teaching assistantship rates are set by collective bargaining between the University and the Teaching Assistants' Union .
Academic Assistantships are employment opportunities to perform work that is relevant to the university or to an individual faculty member, but not to support the student’s graduate research and thesis. Wages are considered regular earnings and when paid monthly, include vacation pay.
Canadian and US applicants may qualify for governmental loans to finance their studies. Please review eligibility and types of loans .
All students may be able to access private sector or bank loans.
Many foreign governments provide support to their citizens in pursuing education abroad. International applicants should check the various governmental resources in their home country, such as the Department of Education, for available scholarships.
The possibility to pursue work to supplement income may depend on the demands the program has on students. It should be carefully weighed if work leads to prolonged program durations or whether work placements can be meaningfully embedded into a program.
International students enrolled as full-time students with a valid study permit can work on campus for unlimited hours and work off-campus for no more than 20 hours a week.
A good starting point to explore student jobs is the UBC Work Learn program or a Co-Op placement .
Students with taxable income in Canada may be able to claim federal or provincial tax credits.
Canadian residents with RRSP accounts may be able to use the Lifelong Learning Plan (LLP) which allows students to withdraw amounts from their registered retirement savings plan (RRSPs) to finance full-time training or education for themselves or their partner.
Please review Filing taxes in Canada on the student services website for more information.
Applicants have access to the cost estimator to develop a financial plan that takes into account various income sources and expenses.
60 students graduated between 2005 and 2013: 1 is in a non-salaried situation; for 3 we have no data (based on research conducted between Feb-May 2016). For the remaining 56 graduates:
Sample employers outside higher education, sample job titles outside higher education, phd career outcome survey, alumni on success.
Job Title Research Scientist
Employer BC Centre for Excellence in HIV/AIDS
These statistics show data for the Doctor of Philosophy in Population and Public Health (PhD). Data are separated for each degree program combination. You may view data for other degree options in the respective program profile.
2023 | 2022 | 2021 | 2020 | 2019 | |
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Applications | 37 | 41 | 52 | 40 | 42 |
Offers | 16 | 21 | 22 | 22 | 19 |
New Registrations | 12 | 13 | 16 | 16 | 11 |
Total Enrolment | 91 | 91 | 91 | 84 | 76 |
Upcoming doctoral exams, friday, 13 september 2024 - 12:30pm - 202, school of population and public health, 2206 east mall, wednesday, 25 september 2024 - 9:00am - room 200.
These videos contain some general advice from faculty across UBC on finding and reaching out to a supervisor. They are not program specific.
This list shows faculty members with full supervisory privileges who are affiliated with this program. It is not a comprehensive list of all potential supervisors as faculty from other programs or faculty members without full supervisory privileges can request approvals to supervise graduate students in this program.
Year | Citation |
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2024 | Dr. Gill examined how different types of childhood poverty experience affect children's development, health, and school success from kindergarten to high school graduation in British Columbia, and how these relationships differ by the child's immigration background. This work can inform intervention and policy to reduce harms related to poverty. |
2024 | Should patients with coronary artery disease consider stenting if they must wait for bypass surgery? Dr. Hardiman compared treatment results of delayed surgery and readily available stenting, finding that patients who underwent surgery fared better. His study will inform future treatment decisions and policy in cardiac care. |
2024 | Dr. Cassidy-Matthews explored how Indigenous People who use drugs in BC experienced the COVID-19 pandemic and examined influences on vaccine uptake and acceptability. She found that a few relational principles underpinned most health decisions and experiences. These included emotional and spiritual connection, environmental stability, and equity. |
2024 | Dr. Yuchi studied air pollution, green space and dementia risk in Canada. Her work underscores the importance of further improvements to the built environment and air quality to reduce the burden of dementia in settings where air pollution levels are relatively low. Urban planning to incorporate greenery and parks may help to reduce dementia risk |
2024 | Dr. Nikiforuk studied how the coronavirus which causes COVID-19 infects cells in the upper human respiratory tract to find that people's risk of infection varies. This finding will be useful in controlling coronavirus transmission and designing new treatment strategies. |
2024 | Dr. Randall explored long-term patient satisfaction with total knee replacement. She found that 12% of participants were dissatisfied, particularly those with ongoing symptoms and unmet expectations. The main concern for patients was how well their new knee supported their daily lives. These findings have both clinical and research implications. |
2024 | Dr. Musoke evaluated the impact of two interventions to improve access to medicines in Uganda. He found that the benefits of such interventions were maintained over a long duration when implemented nationally. This knowledge will aid in the design of future interventions to improve access to medicines in Uganda and other countries. |
2023 | Dr. Desai revealed that despite better CF prognosis in recent years, people with CF still face substantial burden from lung impairment and other complications. Rising healthcare costs due to expensive medications pose additional challenges. These findings will help improve their service planning and resource allocation in the future. |
2023 | Dr. Nisingizwe investigated access to Hepatitis C testing and treatment in Rwanda and internationally. Her dissertation described HCV cascade of care, and patients' barriers to HCV care in Rwanda. Globally, she highlighted countries and regions with high and low access to HCV medicines and the effect of COVID-19 on HCV drug utilization. |
2023 | Dr. Chen unravelled relationships between diabetes medications and breast, colorectal, and pancreatic cancer risk, suggesting potential risk variations with common diabetes medications. Her study underscores the significance of understanding the long-term health impacts of prescription medications, advocating more research. |
Same specialization.
Specialization.
The School of Population and Public Health (SPPH) offers both research-oriented and professional/course-based graduate programs.
Program website, faculty overview, academic unit, program identifier, classification, social media channels, supervisor search.
Departments/Programs may update graduate degree program details through the Faculty & Staff portal. To update contact details for application inquiries, please use this form .
My experience with the Centre for Excellence in Indigenous Health solidified my decision to choose UBC for my graduate studies, as it offers a unique environment that values Indigenous perspectives and fosters meaningful research and leadership opportunities.
I completed both my Bachelor's and Master's degrees at UBC, and throughout those experiences, I became embedded within the community here. It was an easy choice to continue studying at UBC because of the love that I have for my community. Through my research, I want to give back to this community...
UBC’s School of Population and Public Health provides excellent training in health economics, healthcare systems analysis, data analysis, statistics, epidemiology, and qualitative methods. Studying at UBC also provides me with the opportunity to work with my supervisor, Dr. Stirling Bryan, who is...
Vancouver is home to one of the leading IYS networks internationally. When I sought out to learn more about IYS and their potential (something that did not exist in the States at the time), it felt like a perfect fit for my interests in youth mental health and health services research. The more...
Here, you can choose from more than 300 graduate degree program options and 2000+ research supervisors. You can even design your own program.
Click here to learn how to apply!
The PhD in Health Quality (PhDHQ) will prepare experts who will improve the delivery of healthcare through teaching, developing new methodologies and theoretical frameworks, as well as testing innovation in the field of health quality. The PhDHQ program offers a collaborative approach to comprehend and address the complexities within the healthcare system. Graduates of the program will be prepared to take senior leadership roles in health quality portfolios in practice and policy settings across Canada and will also be educated to assume tenure track positions in university programs. While the degree is research intensive, it will also be grounded in pragmatism and will help prepare independent researchers for quality improvement research and developing leadership capabilities in health settings.
The PhDHQ program is a four-year, interdisciplinary program using a combination of synchronous and asynchronous study as well as interactive online videoconferencing. The PhDHQ program consists of five (5) courses in year one, including an internship over the summer months. The internship will be tailored to the learners’ interests and to broadening their perspectives on health quality. In the fall term of year two, students complete the comprehensive exam. In the winter and summer terms of year two (2) students will focus on the development of their thesis proposal and complete HQRS 905 Current Topics in Health Quality. After a successful oral examination of the thesis proposal, students submit their project for ethics review and then proceed to data collection, analysis, and writing. The thesis requires independent, original research and makes up at least two-thirds of the time normally required for the program. Upper year students are expected to visit campus at least once per year; students are required to attend the final thesis examination in person. Nurtured by close mentoring relationships with faculty supervisors, the Queen’s model is to ensure graduate students present and publish their research, and normally complete their program in 4 years.
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Winter 2025
Join our Lunch and Learn to hear more about our professional programs in the rapidly evolving fields of Quantum Computing, Data Science and Analytics and Information Security.
Our one hour session will cover all three of our professional programs and a complimentary lunch will be provided. Faculty members will also be on hand to meet prospective students and answer questions.
Next Lunch and Learn:
Date: Thursday, September 19, 2024 Time: 12:00 - 1:00 p.m. (MT)
Location: University of Calgary Downtown Campus Room 234, Second Floor 906 - 8 Avenue SW, Calgary
Data scientists are among the top 15 tech jobs in demand through 2023, and the demand for digitally-skilled talent in Canada is projected to reach more than 305,000 in the next three years. Claim your spot in our country's growing tech economy with a multidisciplinary education from professionals in the Faculty of Science, Haskayne School of Business and the Cumming School of Medicine, and tailor your education to your interests.
Earn a relevant graduate-level credential to advance your career.
Transition your career to tech with any background.
Recent grad? Stand out with a masters degree in a high-demand field.
Design your experience.
Our curriculum was developed collaboratively to ensure that we provide every student with a multidisciplinary education in data science and analytics that leverages the expertise of leading researchers and instructors at the university. You will learn the fundamental concepts and tools of data science and analytics, machine learning, and artificial intelligence (AI), as you refine your professional and leadership skills while developing and applying your technical knowledge and abilities. You will be able to use concepts and tools across multiple contexts, industries, and sectors.
See a list of our available courses .
The Master of Data Science includes the 24 units (eight 3-unit courses) from the Certificate and Diploma courses. All Masters students will take DATA 691 and then have a choice between pursuing a Professional Internship through DATA 693 or a Research Internship through DATA 695.
Provides a framework for students to initiate, perform and successfully complete a real-world project in Data Science and Analytics. This includes problem identification and formulation; discussion of legal, social, and ethical issues in data-driven projects; holistic processing and application of data; communication and data storytelling skills as well as leadership skills. In addition, students will be exposed to emerging topics in Data Science and Analytics.
Students will integrate professional competencies and advanced analytical tools and apply them to a specific domain.
Exposure to advanced data analytics methods and research methods applied to subdomains of data science, including business analytics and big data problems in healthcare.
Internship is a self-driven 6-credit course requirement for students in the Master of Data Science and Analytics students' program. Students gain 6 – 16 weeks of paid industry work experience allowing them to integrate work experience into their degree, establish a professional network, and explore possible career paths and options.
Internships provide students the opportunity to maximize their student experience by offering paid, hands-on experience in an industry as part of their study program. As an intern, you have the opportunity to explore a career path, and discover personal strengths and interests, all while building a valuable network of professional contacts and securing strong references.
Students enrolled in the Master of Data Science and Analytics program are eligible upon the successful completion of 30 units of coursework. These consist of 12 units of the Graduate Certificate in Fundamental Data Science and Analytics, 12 units of coursework in one of the specialization areas, as well as DATA 691, prior to the internship course.
For international students, a co-op work permit is required. At the start of the program, the Graduate Internship Coordinator provides a letter of support to include in their application for a co-op work permit. The processing time can be lengthy. To avoid delays, students should apply immediately after receiving their letter of support.
There is a tuition fee associated with the Internship course. Please see the University Calendar for details .
There is no better time than the present to get training in Data Science and Analytics. The job field is still very new, so job opportunities are diverse. The program was an accelerated way to start building those skills. It allowed me to get a bit of a head start.
Tim Cruz, BComm’18
2021 graduate - Master of Data Science; 2019 graduate - Data Science & Analytics Diploma
We've compiled a list of the most-asked questions to help you find the information you need.
We offer graduate certificate and diploma programs in Data Science and Analytics, as well as undergraduate minors to help set you up for success.
Advance your career as a health professional.
The Master of Health Informatics (MHI) program is designed for professionals with backgrounds in public health and/or health care who require more knowledge about computer science and health informatics.
Graduates can use this knowledge to identify, design and manage informatics solutions relevant to health and health systems.
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Application deadline: february 1.
In order for an application to be considered, all required documentation, including academic references, must be submitted on or before this date. Please aim to apply by January 18 to allow adequate time to upload supporting documents and ensure that your referees are aware of this firm deadline.
NOTE: Due to the competitive nature of the professional programs at the University of Waterloo the ideal GPA for admission is based on the current pool of applicants and the previous years GPA cut-off. The minimum Graduate Studies application standard for admission is a CGPA of 3.0 or 75%. Successful applicants in the professional programs in 2023/2024 had an average GPA of 78%.
The MHI program consists of 10 required courses (seven core courses, the practicum course, and two electives).
Click on the links below to view the course offerings and program sequence for part- and full-time students. These sequences are subject to change but can be used as reference for planning your future terms.
Gain work experience by completing a 420-hour professional practicum at a hospital, provincial or federal governmental agency or non-governmental organization. You will w ork closely with the Experiential Learning and Communications Specialist to find a meaningful practicum that will provide you with an opportunity to apply your knowledge and skills in a professional setting and to connect with future employers.
The practicum can be completed on a full-time basis over one term or part time over two terms.
Site | Project |
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Canadian Institute for Health Information | Health data and information governance strategy |
University Health Network | Use of data analytics in streamlining lung metastases |
Public Health Ontario | Implementation of surveillance of healthcare associated infections in long-term care homes in Ontario |
Brampton Civic Hospital | Unified communications project and meditech MSO project |
Learn more about the practicum →
During her practicum placement for her Master of Health Informatics program, Acrifa Fears worked for a software company where she worked on a project that utilized digital health technology to monitor patients post-sugery at home wile faciltating administration of care and communication between patient and the healthcare system. Learn more about her practicum experience →
A variety of scholarships, assistantships, and other forms of financial aid are available for graduate students in any professional graduate program. Most of these awards are for full-time graduate students only.
Learn more about funding and awards for professional programs →
We've compiled the answers to the most common questions about the MHI program . Read through for helpful information about admissions, the practicum and more.
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Funded phd programme (students worldwide).
Some or all of the PhD opportunities in this programme have funding attached. Applications for this programme are welcome from suitably qualified candidates worldwide. Funding may only be available to a limited set of nationalities and you should read the full programme details for further information.
A Canadian PhD usually takes 3-6 years. Programmes sometimes include taught classes and training modules followed by a comprehensive examination. You will then carry on to research your thesis, before presenting and defending your work. Programmes are usually offered in English, but universities in Québec and New Brunswick may teach in French.
Algorithms, data structures and computational geometry, phd research project.
PhD Research Projects are advertised opportunities to examine a pre-defined topic or answer a stated research question. Some projects may also provide scope for you to propose your own ideas and approaches.
This project has funding attached, subject to eligibility criteria. Applications for the project are welcome from all suitably qualified candidates, but its funding may be restricted to a limited set of nationalities. You should check the project and department details for more information.
Funded fellowship opportunities in algorithms and bioinformatics, advanced algorithm design for inferring evolution, design of high-performance quantum thermoelectrics using experimental and computational techniques, hci and ubicomp impoving quality of life, experimental reactive fluid mechanics for aerospace applications, funded fellowship opportunities in systems, detection, prediction, and prevention of cyber-attacks on critical infrastructure, security for healthcare internet of things, enabling massive wireless connectivity for the internet of things, smartfarm: the ultimate animal care dashboard, text mining using deep language models and conversational ai.
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Ubc micro-certificate.
Data analytics is a growth area within the health sector. Health systems worldwide are investing in data analytics infrastructure to enable service delivery improvements and increase efficiencies. Capitalizing on the potential of these innovations will require raising the level of data literacy and analytic capabilities of the health sector labour force.
The UBC Micro-certificate in Health Data Analytics: Opportunities and Applications is a part-time technical program developed by the UBC Department of Medicine and UBC Data Science Institute, in consultation with health sector leaders from government, academia and industry. It provides learners with career development and upskilling opportunities to fill the data literacy gap in our evolving data-driven health sector.
Blending foundational data analytics proficiency with health system context and data, this program will enable advancement or transition into a health data science role for professionals with a background in health care.
This micro-certificate was designed to complement existing knowledge of local health care systems and operations. By incorporating best practices and industry standards, the program equips learners with the analytics capabilities and tools needed to harness the power of data, and the confidence to start applying data analytics in their day-to-day work.
View courses & register
Learn more about the UBC Micro-certificate in Health Data Analytics. Meet program instructors, explore how data science is changing health care, and how you can apply your learning to benefit your organization.
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Using real-world cases and data, the UBC Micro-certificate in Health Data Analytics: Opportunities and Applications offers students the hands-on training to gain confidence using data analytics techniques in a data-intense health system. The program blends foundational data analytics proficiency with health system context and data.
By the end of this program, you will be able to:
This program is designed for health care professionals and researchers, either clinical or operational, looking to enhance career performance and prepare for future opportunities, or those wanting to transition into an administrative or leadership role. No prerequisite knowledge of the course topics is required.
Roles that may benefit from this program include:
Each course costs $950. The total cost of the program is $2,850.
All fees are in Canadian dollars and subject to change. Fees are subject to GST where applicable. Fees may be paid by Visa®, Visa® Debit, Mastercard®, American Express®, money order or certified cheque.
For details on UBC’s payment policies, please see Refunds, Cancellations and Transfers .
The micro-certificate program consists of three courses of five weeks each. Combined, the courses take approximately 90 hours to complete.
You can take the courses on their own, in any order. However, to earn your micro-certificate and gain the most value from the program, we recommend taking the courses in succession as they build upon one another:
Course name | Format | Next start date | Learn more | (0115) | (0116) |
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This part-time 100% online program is instructor supported and combines weekly real-time classes and independent study.
Outside of class, you can access online materials on your own time. Each week, you’ll have an opportunity to review readings and videos and apply your knowledge through quizzes, data analysis coding exercises and work-related mini projects. Students are also encouraged to contribute to and connect with one another on a discussion board.
Expected effort
Expect to spend approximately six hours per week completing all learning activities, including attending real-time sessions online.
Technology requirements
To take this program, you need access to:
In the Health Data Analysis and Machine Learning course, you will be using WEKA (Waikato Environment for Knowledge Analysis) data analysis software, which requires a computer less than 5 years old equipped with:
You are assessed on successfully completing weekly assignments and quizzes, as well as your contributions to discussion posts. These activities are marked using a proficiency scale, and your instructor provides you with informal feedback during online classes. You must achieve a minimum of 70% in each course to earn your micro-certificate.
While you are not assessed on your attendance of the real-time classes, we encourage you to attend so you don’t miss the opportunity to learn and interact with your instructor and other participants.
Our program is co-developed by UBC leaders in medicine and data science to meet the emerging analytic needs of professionals working in the health sector.
Anita Palepu, MD is a Professor, Eric W. Hamber Chair, and the Head of the Department of Medicine at the University of British Columbia and Providence Health Care. She is the Co-Lead of the Data Science and Health (DASH) Cluster.
Raymond Ng, PhD is a professor of Computer Science at the University of British Columbia and the Director of the Data Science Institute. He is also the holder of the Canadian Research Chair on Data Science and Analytics.
Guest instructors
Health Data Analytics: Opportunities and Applications is approved by UBC CPD for credits.
The Division of Continuing Professional Development, University of British Columbia Faculty of Medicine (UBC CPD) is fully accredited by the Continuing Medical Education Accreditation Committee (CACME) to provide CPD credits for physicians. This activity is an Accredited Self-Assessment Program (Section 3) as defined by the Maintenance of Certification Program of the Royal College of Physicians and Surgeons of Canada, and approved by UBC CPD. You may claim a maximum of 75 hours (credits are automatically calculated). This one-credit-per-hour Assessment program meets the certification criteria of the College of Family Physicians of Canada and has been certified by UBC CPD for up to 75 Mainpro+® credits. Each physician should claim only those credits accrued through participation in the activity.
SAP ID: 00016410 CFPC Session ID: 202500-001
The discussion questions and assignments promoted thinking about the content in real life scenarios, which helps to understand the content. I liked that the presenters had a lot of knowledge of the subjects. - Student, Introduction to the Big Data Era & Opportunities for Better Health Care
We’re here to answer your questions, discuss learning options and provide insights, recommendations and referrals.
Get in touch
UBC Vancouver is located on the traditional, ancestral and unceded territory of the xʷməθkʷəy̓əm (Musqueam).
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Phd in administration — data science.
Are you planning on a career in academia or business in the field of data science? Join a community of professors and researchers with valuable, recognized expertise.
“Whereas many PhD programs aim exclusively at academic careers, HEC’s approach satisfies both academic interests and professional education.” Walid Mathlouthi, PhD. Data Science Consultant
“The PhD program allowed me to build solid knowledge of data science methods that enables me to solve complex problems with rigor and success, and also to contribute to innovation in the industry.” Marie-Hélène Roy, PhD. Lead Data Scientist – Age of Learning, California
“The teaching and support I received during my PhD studies at HEC Montréal were of such high quality that I couldn’t help but succeed.” Ahlem Hajjem, PhD. Professor at ESG UQAM
The professors associated with this doctoral specialization have authored over 400 scientific papers in the top journals, including:
Many of the professors in this specialization are members of MILA , Montréal’s world-renowned centre for artificial intelligence research.
Methodology.
See the list of students in this specialization on Google Scholar
The eleven professors mainly associated with the doctoral specialization in Data Science have substantial research funds at their disposal to assist students.
Eight of them hold chairs or professorships:
Marc Fredette is principal collaborator at the NSERC-Prompt Industrial Research Chair in User Experience .
Researchers in this specialization work closely with several research groups and knowledge transfer hubs, including:
In addition, HEC Montréal is an institutional member of the Canadian Statistical Sciences Institute (CANSSI) .
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Milken Institute School of Public Health
Health Data Science - PHD
Program Guide
The PhD Program in Health Data Science trains the next generation of data science leaders for applications in public health and medicine. The program advances future leaders in health and biomedical data science by: (i) providing rigorous training in the fundamentals of health and biomedical data science, (ii) fostering innovative thinking for the design, conduct, analysis, and reporting of public health research studies, and (iii) providing practical training through real-world research opportunities at research centers and institutes directed by departmental faculty such as the Biostatistics Center (BSC), the Computational Biology Institute (CBI), and the Biostatistics and Epidemiology Consulting Service (BECS).
The PhD program consists of two concentrations; Biostatistics & Bioinformatics Concentration. Biostatistics is the science of designing, conducting, analyzing, and reporting studies aimed at advancing public health and medicine. Bioinformatics is the science of developing and applying computational algorithms and analysis methodologies to big biological data such as genetic sequences. Together they are foundational sciences for public health research and decision-making and essential to educating the next generation of leaders in health and biomedical data science.
The program takes advantage of the rich biostatistical and bioinformatics resources at GW and in the Nation’s Capital. Faculty in the Department of Biostatistics and Bioinformatics are engaged in a diverse research portfolio that includes areas such as diabetes, infectious diseases, mental health, maternal-fetal medicine, cardiovascular disease, emergency medicine, and oncology. Methodological interests of the faculty include the design and analyses of clinical trials including group-sequential and adaptive design, SMART trials, pragmatic trials, multiple testing, and benefit: risk evaluation; machine learning; meta-analyses; missing data; randomization tests, longitudinal data; the use of real-world data including electronic medical records; and research in biostatistics education methodologies. The Washington DC area is a hub for biostatisticians and bioinformaticians in government and industry, providing a rich source of adjunct faculty with relevant experience. Specifically, the National Institutes of Health (NIH) and the Food and Drug Administration (FDA) have considerable human resources in these disciplines, many with world-class reputations. Several leading biostatisticians from the NIH are currently serving on doctoral committees and teach courses in the Milken Institute School of Public Health (GWSPH).
The program features a modernized applied curriculum, unique in its emphasis on cutting-edge data science techniques while retaining the rigor of traditional Biostatistics and Bioinformatics programs. The program prepares students to be independent researchers and effective collaborators in interdisciplinary studies.
Program Co-Directors: Dr. Keith Crandall (Bioinformatics Concentration)
Dr. Guoqing Diao (Biostatistics Concentration)
Dr. Toshimitsu Hamasaki (Biostatistics Concentration)
GWSPH Doctoral programs admit students for the Fall term each academic year. Applications will be accepted beginning in August and are due no later than December 1st for the next matriculating cohort beginning in the following Fall term. Find GWSPH graduate admissions information here .
All applicants for the Biostatistics Concentration are required to submit current GRE scores (within five years of matriculation date). Applicants for the Bioinformatics Concentration are strongly encouraged to submit a GRE score.
Meeting the minimum requirements does not assure acceptance. Applicants must provide evidence of the completion of their undergraduate and/or graduate work before registration in GWSPH is permitted.
Concentration-Specific Prerequisites
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Additional advanced courses in mathematics and calculus-based probability are encouraged but not a requirement for admission. |
Transfer Credits
Graduate courses taken prior to admission while in non-degree status may not be transferable into GWSPH programs. The PhD program is designed to serve students coming directly from an undergraduate degree. Students completing a master’s degree prior to admission to the PhD degree program may be eligible to transfer up to 24 credits toward the PhD coursework requirements. Depending on how many transfer credits are accepted, at minimum, 48 credits of additional coursework and dissertation research will be required.
PUBH 6080 | Pathways to Public Health (0 credits) PUBH 6421 | Responsible Conduct of Research (1 credit) PUBH 6850 | Introduction to SAS for Public Health Research (1 credit) PUBH 6851 | Introduction to R for Public Health Research (1 credit) PUBH 6852 | Introduction to Python for Public Health Research (1 credit) PUBH 6860 | Principles of Bioinformatics (3 credits) PUBH 6886 | Statistical and Machine Learning for Public Health Research (3 credits) PUBH 8099 | PhD Seminar: Cross Cutting Concepts in Public Health (1 credit) NOTE: In 23-24, PUBH 8099 was updated to PUBH 8001 PUBH 8870 | Statistical Inference for Public Health Research I* (3 credits)
CORE TOTAL: 14 CREDITS
SPH Course Descriptions
PUBH 6866 | Principles of Clinical Trials (3 credits) PUBH 6869 | Principles of Biostatistical Consulting (1 credit) PUBH 6879 | Propensity Score Methods for Causal Inference in Observational Studies (3 credits) PUBH 6887 | Applied Longitudinal Data Analysis for Public Health Research (3 credits) PUBH 8871 | Statistical Inference for Public Health Research II* (3 credits) PUBH 8875 | Linear Models in Biostatistics* (3 credits) PUBH 8877 | Generalized Linear Models in Biostatistics* (3 credits) PUBH 8878 | Statistical Genetics (3 credits) PUBH 8879 | An Introduction to Causal Inference for Public Health Research (3 credits) PUBH 8880 | Statistical Computing for Public Health Research (3 credits) STAT 6227 | Survival Analysis (3 credits)
BIOSTATISTICS CONCENTRATION-SPECIFIC TOTAL: 28 CREDITS
* Courses are basis of comprehensive exam for the Biostatistics concentration.
PUBH 6854 | Applied Computing in Health Data Science (3 credits) PUBH 6859 | High Performance Cloud Computing (3 credits) PUBH 6861 | Public Health Genomics (3 credits) PUBH 68 84 | Bioinformatics Algorithms and Data Structure (3 credits) PUBH 8885 | Computational Biology (3 credits)
BIOINFORMATICS CONCENTRATION-SPECIFIC TOTAL: 15 CREDITS
Both concentrations: elective selections must include at least*:
All students are expected to work with their Advisor in the selection of their Elective coursework.
*Pre-approved elective courses are shown in the program guide for each category.
BIOSTATISTICS ELECTIVES MINIMUM: 12 CREDITS BIOINFORMATICS ELECTIVES MINIMUM: 18 CREDITS
PRACTICUM/TEACHING RESEARCH GTAP** | GradTeachingAsst Certification (This includes UNIV 0250 - Graduate Assistant Certification Course (1 credit) (both concentrations) (0; 1 credit) PUBH 8283 | Doctoral Biostatistics Consulting Practicum (Biostatistics concentration only) (2 credits) PUBH 8413 | Research Leadership (both concentrations (1 credit)
** This is a requirement for TAs .
DISSERTATION RESEARCH PUBH 8999 | Dissertation Research (varies by concentration - 12 minimum credits)
BIOSTATISTICS PRACTICUM/RESEARCH: 12-15 CREDITS BIOINFORMATICS PRACTICUM/RESEARCH: 12-24 CREDITS
Professional Enhancement
Students in degree programs must participate in eight hours of Professional Enhancement. These activities may be Public Health-related lectures, seminars, or symposia related to your field of study.
Professional Enhancement activities supplement the rigorous academic curriculum of the SPH degree programs and help prepare students to participate actively in the professional community. You can learn more about opportunities for Professional Enhancement via the Milken Institute School of Public Health Listserv, through departmental communications, or by speaking with your advisor.
Students must submit a completed Professional Enhancement Form to the student records department [email protected] .
Collaborative Institutional Training Initiative (CITI) Training
All students are required to complete the Basic CITI training module in Social and Behavioral Research prior to beginning the practicum. This online training module for Social and Behavioral Researchers will help new students demonstrate and maintain sufficient knowledge of the ethical principles and regulatory requirements for protecting human subjects - key for any public health research.
Academic Integrity Quiz
All Milken Institute School of Public Health students are required to review the University’s Code of Academic Integrity and complete the GW Academic Integrity Activity. This activity must be completed within 2 weeks of matriculation. Information on GWSPH Academic Integrity requirements can be found here.
Past Program Guides
Students in the PhD in Health and Biomedical Data Science program should refer to the guide from the year in which they matriculated into the program. For the current program guide, click the "PROGRAM GUIDE" button on the right-hand side of the page.
Program Guide 2023-2024 Program Guide 2022-2023 Program Guide 2021-2022
Lizhao (Agnes) Ge Email: [email protected] Start year: 2021
Lizhao was born and raised in Zhejiang, China. She came to the United States for undergraduate studies at the University of Iowa, where she obtained a BS in Mathematics and a BBA in Finance, and a minor in Music. She earned a Master of Applied Statistics from the Pennsylvania State University and worked there as a Statistical Consultant after graduation. She joined the Antibacterial Resistance Leadership Group (ARLG) at the George Washington University Biostatistics Center as a biostatistician in 2020 and started her PhD journey in the Health and Biomedical Data Science (Applied Biostatistics track) in 2021. Her research interests are clinical trial designs, and application of the Desirability of Outcome Ranking (DOOR) in biomedical studies.
Yijie He Email: [email protected] Start year: 2021
Yijie was born in China. Before coming to the George Washington University, he received a BS degree in Bioengineering from University of California San Diego and an MS degree in Biostatistics from Duke University. He is currently a PhD student in Health and Biomedical Data Science, in the Applied Biostatistics track, and he also works at the George Washington University Biostatistics Center as a biostatistician. His current research interests include clinical trials, high-dimensional data, and data science.
Shiyu Shu Email: [email protected] Start year: 2021
Shiyu (Richard) was born and raised in Dalian, China, and has been studying in the United States for the last 7 years. He obtained a BA in Mathematics and in Economics from Vassar College, during which he spent one semester as an exchange student at St Edmund Hall, Oxford University. He then received a Master of Statistical Practice from Carnegie Mellon University, and worked as a data analyst for a healthcare organization in rural Arizona during the peak of the COVID pandemic. The work experience motivated him to pursue a career in public health, and to continue his PhD studies in the Health and Biomedical Data Science program at GWU. He is currently a biostatistician working in the Diabetes Prevention Program team (DPP) at the Biostatistics Center, under the supervision of Dr. Marinella Temprosa. His current research interests include machine learning/data science, genomics data and survival analysis.
Shanshan Zhang Email: [email protected] Start year: 2021
Shanshan was born and raised in China. She earned a Bachelor of Medicine and a Master of Science in Cell Biology from China Medical University. When she came to the United States in 2018, she transferred her interests to public health, since a doctor can save individuals, whereas a public health expert can save lives on a population level. She obtained a second graduate degree, an MS in Biostatistics from the George Washington University. Shanshan hopes that she can make contributions to the field of public health, especially in designing and conducting clinical trials during the PhD program, and can work as an outstanding biostatistician in the future.
Recent Publications:
Qiongfang Wu, Leizhen Xia, Lifeng Tian, Shanshan Zhang, Jialyu Huang. Hormonal replacement treatment for frozen-thawed embryo transfer with or without GnRH agonist pretreatment: a retrospective cohort study stratified by times of embryo implantation failures. Accepted by Frontiers in Endocrinology. 5 January 2022
Shanshan Zhang. Biostatistics in Clinical Decision Making: What can We Get from a 2× 2 Contingency Table. E3S Web of Conferences (Vol. 233). EDP Sciences. December 2020
Qiqiang Guo, Shanshan Wang, Shanshan Zhang, Hongde Xu, Xiaoman Li, et al. ATM‐CHK 2‐Beclin 1 Axis Promotes Autophagy to Maintain ROS Homeostasis Under Oxidative Stress. The EMBO Journal, 39(10), e103111. 18 March 2020
Mahdi Baghbanzadeh Email: [email protected] ; [email protected] Start year: 2021
Mahdi Baghbanzadeh is a Ph.D. student in the health and biomedical data science program at the Milken Institute School of Public Health at the George Washington University. Mahdi received his MS in Mathematical Statistics from Shiraz University in 2012, and his BS in Statistics from Shahid Beheshti University in 2010. Before joining GWU, he had the experience of 7 years performing in an analytical role ranging from data analyst to senior data scientist in multiple companies. His research interests are applying machine learning algorithms in analyzing omics data, developing tools for studying the genotype-phenotype association studies, and the effects of different medications on a certain disease.
Publications:
Baghbanzadeh, Mostafa; Simeone, F. C.; Bowers, C. M.; Liao, K.-C.; Thuo, M. M.; Baghbanzadeh, Mahdi ; Miller, M.; Carmichael, T. B.; Whitesides, G. M.* “Odd-even effects in charge transport across n-alkanethiolate-based SAMs” Journal of American Chemical Society , 2014 , 136 , 16919–16925.
Mahdi Baghbanzadeh , Dewesh Kumar, Sare I. Yavasoglu, Sydney Manning, Ahmad Ali Hanafi-Bojd, Hassan Ghasemzadeh, Ifthekar Sikder, Dilip Kumar, Nisha Murmu, Ubydul Haque* “Malaria Epidemics in India: Role of Climatic Condition and Control Measures” Science of the Total Environment , 2020 , 712 , 136368.
Peeri, Noah C., Nistha Shrestha, Md Siddikur Rahman, Rafdzah Zaki, Zhengqi Tan, Saana Bibi, Mahdi Baghbanzadeh , Nasrin Aghamohammadi, Wenyi Zhang, and Ubydul Haque. " The SARS, MERS and novel coronavirus (COVID-19) epidemics, the newest and biggest global health threats: what lessons have we learned? " International Journal of Epidemiology , 2020 , 49 , 717-726.
Md Siddikur Rahman, Ajlina Karamehic-Muratovic, Mahdi Baghbanzadeh , Miftahuzzannat Amrin, Sumaira Zafar, Nadia Nahrin Rahman, Sharifa Umma Shirina, Ubydul Haque, “Climate change and dengue fever knowledge, attitudes and practices in Bangladesh: a social media–based cross-sectional survey” , Transactions of The Royal Society of Tropical Medicine and Hygiene , 2021 , 115 , 85-93.
Nistha Shrestha, Muhammad Yousaf Shad, Osman Ulvi, Modasser Hossain Khan, Ajlina Karamehic-Muratovic, Uyen-Sa D.T. Nguyen, Mahdi Baghbanzadeh , Robert Wardrup, Nasrin Aghamohammadi, Diana Cervantes, Kh. Md Nahiduzzaman, Rafdzah Ahmed Zaki, Ubydul Haque, “ The impact of COVID-19 on globalization” , One Health , 2020 , 100180.
Osman Ulvi, Ajlina Karamehic-Muratovic, Mahdi Baghbanzadeh , Ateka Bashir, Jacob Smith, Ubydul Haque, “ Social Media Use and Mental Health: A Global Analysis ”, Epidemiologia, 2022 , 3 (1), 11-25 .
Ranojoy Chatterjee Email: [email protected] ; [email protected] Start year: 2021
Ranojoy is originally from Kolkata, India. He got his B.Tech in Computer Science from WBUT and has an MS in Computer Science from Kansas State University, specializing in recommendation systems using a multi-armed bandit approach. After graduation he worked at Bellwethr, Inc developing a retention engine which was later patented by the company. After his brief stint in industry, he worked as a research specialist in Rahlab to develop machine learning tools for analyzing Covid-19 data. His current research interests are graph neural networks, single cell data and prediction systems in biomedical data science.
Amritphale, A., Chatterjee, R., Chatterjee, S. et al. Predictors of 30-Day Unplanned Readmission After Carotid Artery Stenting Using Artificial Intelligence. Adv Ther 38, 2954–2972 (2021). https://doi.org/10.1007/s12325-021-01709-7
Chow JH, Rahnavard A, Gomberg-Maitland M, Chatterjee R, et al. Association of Early Aspirin Use With In-Hospital Mortality in Patients With Moderate COVID-19. JAMA Netw Open. 2022;5(3):e223890. doi:10.1001/jamanetworkopen.2022.3890
Clark Gaylord Email: [email protected] Start year: 2021
After receiving M.S. degrees in Mathematics and Statistics from the University of Virginia and Virginia Tech, respectively, Clark has had a career in information technology, network security, and research computing. Over the last 20 years, Clark has led the design and operation of many research computing and big data research systems, and is a consulting statistician on several research projects. While at Virginia Tech, Clark taught several courses in Statistics, Data Science, and Networking. A PhD candidate in GW's Health and Biomedical Data Science, Bioinformatics Track, Clark is also Director of Research Technology Services in GW IT.
CAAREN: https://www.caaren.org/clark-gaylord GW High Performance Computing: https://www.hpc.arc.gwu.edu/
Erika Hubbard Email: [email protected] Start year: 2021
Erika was born and raised in Fairfax County, Virginia (NOVA) and earned her BSc in Biomedical Engineering with minor concentrations in Applied Mathematics and Engineering Business from the University of Virginia. Upon graduation she went on to intern and work for AMPEL BioSolutions, LLC in Charlottesville, VA, researching autoimmune and inflammatory diseases, primarily systemic lupus erythematosus (SLE). As a dual member of the systems biology and bioinformatics teams at AMPEL she developed an interest in leveraging genomics data to gain insights into mechanisms of autoimmune disease pathogenesis. She continues to work with AMPEL to study lupus and translate findings into novel clinical tools to further precision medicine.
Hubbard EL, Pisetsky DS, Lipsky PE. Anti-RNP antibodies are associated with the interferon gene signature but not decreased complement levels in SLE. Ann Rheum Dis [Epub ahead of print: 3 Feb 2022]. doi: https://doi.org/10.1136/annrheumdis-2021-221662
Hubbard EL, Grammer AC, Lipsky PE. Transcriptomics data: pointing the way to subclassification and personalized medicine in systemic lupus erythematosus. Curr Opin Rheumatol [Internet]. 2021 Nov 1;33(6):579-85. doi: https://doi.org/10.1097/bor.0000000000000833
Daamen AR, Bachali P, Owen KA, Kingsmore KM, Hubbard EL, Labonte AC, et al. Comprehensive transcriptomic analysis of COVID-19 blood, lung, and airway. Sci Rep [Internet]. 2021 Mar 29;11(1):7052. doi: https://doi.org/10.1038/s41598-021-86002-x
Hubbard EL, Catalina MD, Heuer S, Bachali P, Geraci NS, et al. Analysis of gene expression from systemic lupus erythematosus synovium reveals myeloid cell-driven pathogenesis of lupus arthritis. Sci Rep [Internet]. 2020 Oct 15;10(1):17361. doi: https://doi.org/10.1038/s41598-020-74391-4
Xinyang Zhang Email: [email protected] ; [email protected] Start year: 2021
Xinyang was born and raised in Jiangsu, China. Before coming to George Washington University, she obtained her MS in Data Informatics at the University of Southern California, Los Angeles. For now, she started her Ph.D. journey in Health and biomedical data science (Applied Bioinformatics track) and works for the Computational Biology Institute (CBI) as a Research Assistant. Her research interest focuses on microbiome analysis, omics data for the COVID-19, and reference-grade pathogen sequences database construction.
This program aims to develop excellent epidemiologists, able to work, teach and conduct research on contributors to health; disease, disability and death; and effective measures of prevention.
The overall goal of the program is to enable graduates to acquire the necessary scientific knowledge and methodological skills to become independent researchers in epidemiology. Graduates with a PhD in epidemiology are expected to have developed the skills which enable them to:
Click here to view PhD Competencies
Successful applicants will have research interests congruent with those of one or more members of faculty, and may have identified a possible primary or co-supervisor, prior to admission. Admission may otherwise be conditional upon identifying a supervisor. Thus, applicants are strongly encouraged to seek out potential supervisors, and discuss with them the possibilities, prior to applying to the degree program. Applicants should note that identifying a potential supervisor does not guarantee admission.
Course Requirements (3.5 FCE)
Required Courses (3.0)
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This course requires enrollment during the first 2 years of study | 0.5 |
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Elective Courses (0.5)
Students are best served if their elective courses form part of a coherent package of experience. In this light, students are encouraged to choose elective courses that relate to the theme of their dissertation. For example, advanced methodological courses might be appropriate for a dissertation which involves highly complex statistical analysis; pathology courses for a dissertation which focuses more on disease process; bioethics courses for a dissertation on genetic epidemiology. Electives also may fill gaps in overall training and experience: A student with a largely social sciences background might benefit from health professional level pathology courses; a student with substantial bench-sciences training, who is interested in disease screening, might consider courses in behavioural sciences, health economics, or health policy. Students are encouraged to discuss the selection of appropriate electives with their Supervisory Committees.
Students in the PhD program in the Epidemiology field of study have the option to complete an emphasis by completing appropriate coursework in a given area. The emphasis requirements will also count toward, but may exceed, the 4.0 full-course equivalent (FCE) field requirement.
Course Requirements: Emphasis in Artificial Intelligence and Data Science (1.5 FCE)
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Other course(s) approved by the Program Director |
The qualifying examination is an in-class written exam:
The written qualifying can be fulfilled after the following required courses are complete:
CHL5404H: Research Methods I (0.5) CHL5406H: Quantitative Methods for Biomedical Research (0.5) CHL5408H: Research Methods II (0.5) CHL5424H: Advanced Quantitative Methods in Epidemiology (0.5)
The PhD proposal defense is a requirement for candidacy and should be completed by December of the second year. The proposal defense can be done during the first year of study with the approval of the Program Director. The purpose of the proposal defense is to:
Format: The proposal will include a brief and cogent review of the literature, justification of the research question, the objectives and hypotheses, design, data collection or data sources, proposed analysis strategies, timetable, ethics, and potential problems or issues. The proposal will conclude with references in proper bibliographic format. The proposal also will include a concise statement of the student’s role in the development and conduct of the research. A title page, with word count, will include the names of the Supervisor and other Supervisory Committee members. The proposal will be printed using a 12-point font, and limited to 10 single-spaced pages. The bibliography and title page are not included in the page or word counts. Appendices should be kept to a minimum.
Defense for approval of PhD proposal:
The proposal defense consists of a written outline of the dissertation proposal and an oral presentation. The completion of this process also counts as the protocol approval, which is required for candidacy. The following elements will be assessed:
The proposal presentation must be attended by the student, the Supervisory Committee and one external reviewer approved by the Program Director. The presentation will be advertised within the Graduate Department of Public Health Sciences, and students and faculty are encouraged to attend. The external reviewer must be a Full or Associate member of SGS, ideally has research supervisory experience at the doctoral level, and must have specific research expertise in the dissertation topic or methods. The reviewer should have had no previous involvement with the development of the proposal under review.
Process for evaluation:
The following outline the implications for the evaluation:
Approval: The student may proceed with dissertation work and remaining program progression, taking note of all feedback received during the protocol defense and in consultation with the Supervisor considering minor amendments to their doctoral research accordingly. This candidacy requirement has been met.
Provisional Approval: The student must create a point-by-point response to the concerns/issues raised and make changes to the proposal within 60 days of the proposal defense. Once the Supervisory committee has approved the revisions, the proposal must be submitted to the Program Director and Administrative Assistant as a final record. An approval will then be recorded for candidacy.
Not approved: Non-approval indicates that the performance was inadequate and/or the protocol has major deficiencies according to the IV domains. In the event that the student is not approved on the first attempt, the student will be permitted one more attempt. Failure of the second attempt will result in a recommendation for program termination.
Click here to view the SGS Supervision Guidelines for Students.
Beginning prior to admission, and with the assistance of the Program Director, the applicant will explore supervisory possibilities: a faculty member with an appointment in the Division of Epidemiology who has a Full appointment in the School of Graduate Studies (SGS), and who conducts epidemiological research. In some instances, the student and the Program Director will identify both a primary and a co-supervisor. The co-supervisor generally will be a faculty member with an Associate appointment in the SGS. The faculty supervisor may be confirmed prior to beginning the program, and generally will be in place by the end of the first year. students are encouraged to explore broadly and have wide-ranging discussions with potential supervisors. The Program Director must approve the selection of the primary supervisor and the co-supervisor.
Role and Responsibilities
The Supervisor is responsible for providing mentorship to the student through all phases of the PhD program. Thus; to the extent possible, the Supervisor will guide the selection of courses, dissertation topic, supervisory committee membership, and supervisory committee meetings; will assist with applications for funding; will make every effort to provide funding to the student directly; and will provide references for the student on a timely basis. The Supervisor also will comment on the student’s plan for preparation for the comprehensive examination. The Supervisor will guide the development of the student’s research proposal, and the implementation and conduct of all aspects of the research; advise on writing the dissertation; correct drafts and approve the final dissertation; and attend the defense.
Supervisory Committee
With the assistance of the Supervisor, and with the approval of the Program Director, the student will assemble a Supervisory Committee within the first year of study.
The Supervisory Committee, chaired by the Supervisor, will contribute advice regarding course selection; preparation for the comprehensive examination; selection of the dissertation topic; preparation and defense of the proposal; and implementation of the research plan. The Supervisory Committee also will provide timely and constructive criticism and guidance regarding data analysis, writing the dissertation, and preparing for its defense.
Composition
The Supervisory Committee generally will comprise the Supervisor and at least two members who hold either Full or Associate appointments in the SGS and may or may not hold a primary appointment in Epidemiology. Between these individuals and the Supervisor, there should be expertise in all content and methodological areas relevant to the student’s research focus and dissertation proposal. At times, when the student’s Supervisory Committee extends beyond the requisite Supervisor plus two SGS-qualified members, additional members may not necessarily hold SGS appointments (e.g., community members). Non-SGS members, however, may participate only as non-voting qualified observers at the SGS Final Oral Examination (i.e., observer who has been approved by the student, the Supervisor, and the SGS Vice-Dean, Programs).
Supervisory Committee meetings will be held at least every six (6) months throughout the student’s PhD program. Under certain circumstances (e.g., during times of very rapid progress), the student and the Supervisory Committee may decide there is a need for more frequent meetings.
At the end of every meeting of the Supervisory Committee, the student and the Committee will complete the Supervisory Committee Meeting Report . All present must sign the report, which will be delivered to the Program Director and filed in the student’s progress file in the Graduate Department of Public Health Sciences.
The Report of the Graduate Department of Public Health Sciences Oral Defense Committee Meeting will be completed at the end of the Departmental Defense during which the Oral Defense Committee makes the recommendation for the student to proceed to the SGS Final Oral Examination (FOE). The Report will also be signed and delivered to the Program Director and filed in the student’s progress file in the Graduate Department of Public Health Sciences.
The phases of the PhD program are identified by a set of accomplishments which the student generally will attain in order, and within a satisfactory time. These phases, which will be monitored by the Program Director of the PhD program, are the identification of the Supervisor and the Supervisory Committee, completion of required and elective course work, completion of the comprehensive examination, defense of the research proposal, and defense of the dissertation (both Departmental and SGS ). Full-time students are expected to complete the PhD within four (4) years. Flex-time students may take longer, but not more than eight (8) years; they must submit a revised list of milestones, for approval by the Supervisor and the Program Director. Click here to view the PhD Epidemiology Timeline .
All research projects in which University of Toronto students are involved at any stage must have approval from the University of Toronto Research Ethics Board (REB). This includes ongoing research projects of the Supervisor which has previously received REB approval and where REB approval is already held from a University affiliated hospital or research institute. Preliminary work necessary to prepare the proposal may also require an original REB application or amendment to the original study. See details of the REB application and review process at Office of Research Ethics ( www.research.utoronto.ca/for-researchers-administrators/ethics/ ).
The dissertation proposal, as approved by the Program Director, must have University of Toronto Research Ethics Board approval as a supervised research study. An application for initial REB approval (or amendment to approval for an ongoing study), will therefore follow the approval of the dissertation proposal.
A dissertation in epidemiology must have relevance to the health of human populations. Within that broad framework, the dissertation may deal with any topic in the areas of medicine, public health and, health care services; and the research designs and statistical methods used in these fields. A doctoral dissertation in epidemiology may involve new data, collected for the purpose of the study, or the use of data previously collected. In the latter case, the analysis must be suitably complex, and must be driven by theoretical considerations and a specific research or methodological question. The dissertation result should be new knowledge and should include findings suitable for publication in peer-reviewed epidemiology journals. It may include both methodological and substantive advances in knowledge.
The dissertation topic must include clearly posed research questions amenable to study by appropriate epidemiologic methods. The student must have contributed substantially to the identification of the research question and must have played an integral part in the planning of the investigation. Wherever appropriate, the student will also be expected to participate directly in the collection of the data. Students will be expected to analyze their own data using appropriate analytic approaches.
Format Options for Dissertation
Students may choose one of two options for preparation of the dissertation: a monograph or a series of journal articles. The monograph is the default option. It is a single report, divided into chapters: introduction, literature review, methods, results, and discussion. A reference list would be followed by various appended material, which might include data collection instruments, additional related findings, and the like.
The journal article option varies from the monograph in that the main body of the dissertation comprises approximately three (3) complete, stand-alone manuscripts; these may already have been published, or may be ready to submit for peer-review. The manuscripts should be preceded and followed by material that unites them. So, for instance, an introduction and literature review, and possibly methods, more global in scope than those included in the manuscripts themselves, would precede the manuscripts; likewise, a discussion would follow, and would tie the manuscripts together, describing how they – as a group – make a contribution to the literature. Appended material might include the methodological details that would not be present in the methods sections of the manuscripts.
Regardless of format, the student should identify and follow appropriate style guides for the preparation of the dissertation.
Dissertation Defense
The student should aim to defend the dissertation within four years of entry into the PhD program. The defense of the dissertation will take place in two stages: first, a Departmental defense, second, a formal defense (the Final Oral Examination) before a University committee according to procedures established by the School of Graduate Studies (SGS). The two defenses generally are separated by about eight weeks.
Departmental Defense
The Departmental defense will be held after the completed dissertation has been approved by all members of the student’s Supervisory Committee, and the completion of the final Supervisory Committee meeting report. The purpose of this defense is to rehearse the oral presentation for the SGS defense and to determine whether the student is ready for the SGS defense.
The student should expect constructive criticism about the clarity and length of the presentation and the quality of visual materials, as well as about the dissertation itself. In particular, the Departmental defense will confirm that:
The Departmental defense is attended by the student, the Supervisor and other members of the Supervisory Committee, and two reviewers with full SGS appointments. At least one reviewer should have supervisory experience in epidemiology at the doctoral level. The second reviewer may be a substantive expert from another discipline. Eligible reviewers will have had no prior involvement with the design or conduct of the research, with the exception of providing references or other background material, and generally will not be the faculty who served as reviewers at the proposal defense. The presentation will be advertised within the Graduate Department of Public Health Sciences, and other students and faculty are encouraged to attend.
a) Dissertation is acceptable: ____ as is ____ with corrections/modifications as described in report to be prepared by the Program Director’s Representative
b) Another Supervisory Committee meeting required to see final dissertation: ____ Yes ____ No
c) If no, Committee member to see that changes are made: __________________________
d) Dissertation recommended for examination in: ______ months.
The Report will be delivered to the Program Director and filed in the student’s file in the Graduate office of Public Health Sciences.
| : Infectious disease epidemiology, sexually transmitted infections, HPV, HPV-related cancers, HIV, sexual health | |
| : Infectious disease epidemiology, genetic epidemiology “Genetic variants associated with new onset autoimmune disease following SARS-CoV-2 infection” | |
| : Communicable disease epidemiology, HIV/AIDS “The impact of the COVID-19 pandemic on healthcare engagement among People Living with HIV in Ontario” | |
| : Indigenous health, Indigenous research methodologies, substance use, homelessness “Using Indigenous worldviews and understandings of homelessness to develop and validate a new population-level assessment tool that measures chronic and episodic homelessness among First Nations, Inuit and Metis living in Toronto, Ontario” | |
| : Perinatal epidemiology, environmental epidemiology, social determinants of health, predictive modelling, epidemiologic methods “Predicting and Preventing Adverse Pregnancy Outcomes in Canada”
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| : Infectious disease epidemiology, Cancer epidemiology, Cancer survival and prognosis “An examination of the impact of infection on survival and prognosis in cancer populations” | |
| Cardiovascular epidemiology, sports medicine, mental health, cardiac arrest, health services research, social determinants of health | |
| : Machine Learning, Artificial Intelligence, Predictive Modelling, Imaging and Big Data. “High-Dimensional Analysis to Pinpoint the Origin of Pain Among Postmenopausal Women with Knee Osteoarthritis Using Convolved Features from Knee MRI Scans”
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| : Women’s health, reproductive health, chronic disease, aging, lifecourse epidemiology “Reproductive health and chronic disease across the lifecourse among postmenopausal women” | |
| and | : Infectious disease modelling, emerging infectious diseases, mpox, real-world vaccine effectiveness “Limiting biases in measures of vaccine effectiveness from real-world data during the evolving mpox outbreak in Canada and Internationally”
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| : Chronic disease epidemiology, women’s health, children’s and adolescent’s health, social determinants of health, knowledge synthesis “Impact of migraine and migraine-related comorbidity on perinatal outcomes” | |
| : Emerging infectious diseases, HIV/STI epidemiology, community-based participatory research, mathematical modelling, global health security “Community-based participatory modeling of HIV transmission: Assessing the influence of sexual networks on HIV epidemics among men who have sex with men in Kenya” | |
| and | : COVID-19, pediatric epidemiology, machine learning, predictive modelling, pediatric interventions |
| : Intersection of social demographic factors and infectious disease epidemiology. The Unequal Landscape of COVID-19 in Toronto | |
| : Global mental health, psychiatric epidemiology, excess mortality due to suicide | |
| and | Chronic disease epidemiology, population health intervention research, social epidemiology, health equity, public health policy “The alcohol-harm paradox and health equity impacts of alcohol policy in Canada: Evidence to inform the complex relationships across alcohol policy, consumption, and harms” (Working title) |
| : Global health, HIV/AIDS, implementation science, social epidemiology, housing and homelessness | |
| & | : Infectious disease epidemiology, vaccine-preventable diseases, global health “Waning measles immunity in Ontario: A population-based cohort study” |
| and | Measuring the burden of respiratory syncytial virus among older adults living in Ontario Infectious diseases; vaccine policy, effectiveness, and communication; health equity research |
| & | : Environmental toxicants, neurocognitive development, fetal exposures, child health, global health “The role of environmental toxicant exposure on neurodevelopment in children: examining cognitive and behavioural symptoms among mother-child pairs from two environmental birth cohort studies.” |
| : Mental health, sexuality, health services research, predictive modelling, machine learning, psychometric evaluation | |
| and | : Infectious Disease Epidemiology, Spatial Epidemiology, Artificial Intelligence, Predictive Analytics |
| : Health services research, remote patient monitoring, population health, modifiable risk factors, molecular epidemiology, machine learning | |
| : Polypharmacy, pharmacoepidemiology, health administrative data | |
| : Infectious disease epidemiology, HIV, sexually transmitted infections, sexual health research, community-based research | |
| : Social conditions and health, methods for population-based health research, life course epidemiology, chronic disease epidemiology “Addressing the single-risk factor framework through deep learning methods: applications in multimorbidity” | |
| : Infectious disease epidemiology, hepatitis C, HIV, and other sexually transmitted and blood-borne infections, harm reduction, and health disparities research “Measuring uptake and effectiveness of direct-acting antiviral treatment for hepatitis C among key populations in Ontario: a population-based retrospective cohort study.” | |
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| Understanding the mechanisms of how estradiol loss at menopause leads to knee pain: A population-based longitudinal study of postmenopausal women Chronic disease epidemiology, causal inference, aging, and women’s health |
Ijeoma Itanyi
| and | Non-communicable disease epidemiology, Multimorbidity, Population health, Electronic Medical Records, Machine learning |
| : Cancer epidemiology, biomarkers, pharmacoepidemiology “Improving the safety and efficacy of treatment for metastatic colorectal cancer by understanding the genetic influences on the mechanism of action of the epidermal growth factor receptor targeting monoclonal antibody drug cetuximab using data from the Canadian Cancer Trials Group CO.17 and CO.20 randomized controlled trials.” | |
| & | : Maternal and child health, global health, methodology – observational cohort studies, infectious disease epidemiology Measurement of breastfeeding practices and infant intake of breast milk components in epidemiological research |
| : Indigenous health, Indigenous research methodologies “Using an Indigenous theoretical framework to measure Indigenous Homelessness and its’ impacts of Indigeneity and substance use among Indigenous Peoples living in urban and related homelands.” | |
| “The burden of cancer among people living with HIV in Ontario and the effect of immune function and engagement in HIV care on cancer risk.” | |
| chronic disease epidemiology, disability studies, child health, health services research | |
| : Mental health, social epidemiology, occupational health, machine learning “Using unsupervised machine learning methods to identify service use patterns and gendered care pathways in the publicly funded mental healthcare system in Ontario.” | |
| : Antimicrobial resistance, antimicrobial utilization, big data | |
| : Prediction Modelling, Machine Learning, Environmental Health, Health Services Research, Premature Mortality “Developing Population-Based Risk Tools to Predict and Reduce Premature Mortality in Canadian Cities.” | |
| : Environmental epidemiology, neurologic outcomes, methods & app data “Estimating associations between air pollution and migraine using smartphone app data” | |
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| Infectious disease epidemiology, mathematical modelling, substance use epidemiology “Leveraging population-based modelling approaches to inform respiratory disease prevention”
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: Population health, emergency medicine, health services | ||
| : Social epidemiology, mental health for racialized populations, health equity, mixed methods methodology, evaluation | |
Twitter:
| and | Infectious disease surveillance using emerging data sources: Applications to antimicrobial resistance and COVID-19 Infectious disease epidemiology, COVID-19, antimicrobial resistance, antimicrobial stewardship, infectious disease surveillance |
| Rare disease, knowledge translation, evidence synthesis, patient-engagement in research | |
| and Alyson Mahar | : Veteran and military mental health; psychiatric epidemiology; social epidemiology “Sex-specific differences in mental health service utilization amongst Canadian Armed Forces Veterans: a population-based study.” |
Twitter:
| Participant-owned wearables for evaluating longitudinal trends in physical activity during the COVID-19 pandemic. Participate in this research by downloading the . More information here: Behavioural epidemiology, mobile health data, physical activity | |
| and | Pharmacoepidemiology, perinatal epidemiology, pediatric health, global health, women’s health “Examining the association between prenatal antidepressant exposure and maternal and child/adolescent cardiometabolic outcomes” |
| Longitudinal approaches to the epidemiology of total knee arthroplasty: Trends, determinants, and postoperative outcomes Arthritis, musculoskeletal health, chronic disease epidemiology, clinical epidemiology, social determinants of health, correlated/longitudinal data analysis, complex survey and health administrative data analysis, causal inference from observational data. | |
| : health services research, health technology assessment, healthcare access | |
| : Social epidemiology, population health, premature mortality, predictive modeling, machine learning “Understanding, predicting, and preventing mortality from deaths of despair: a population-based approach to addressing stagnating life expectancy in Canada.” |
Isha Berry
| “Transmission dynamics of influenza and avian influenza in urban Bangladesh: live poultry exposure, seasonality, and pandemic risk at the human-poultry interface” Infectious disease epidemiology, global health, mathematical modelling, one health, emerging infectious diseases, influenzas
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| & | : Maternal and infant health, Maternal illicit drug use, child health, health equity, public health policy Title: “Health and Developmental Outcomes Associated with Prenatal Opioid Exposure: A Population-based Retrospective Cohort Study in Ontario.” |
Twitter: @EpiHarris
| “Antipsychotic reduction efforts in long-term care: Examining the extent and potential impact of medication substitution.” Pharmacoepidemiology, neurodegenerative diseases, aging, artificial intelligence and data science | |
| I : nfectious diseases, pertussis, immunization research, public health policy, and applied machine-learning “The problem with pertussis: Finding uncaptured pertussis cases in the Electronic Medical Record Primary Care (EMRPC) to improve estimates of burden and vaccine effectiveness.” | |
: Cannabis legalization, alcohol policy interventions, addiction and mental health, Indigenous health | ||
: Molecular and genetic epidemiology, cancer epidemiology, risk-prediction, cancer prevention and early detection methods, machine learning, deep learning, Bayesian methods | ||
| : Chronic disease epidemiology, health services research, musculoskeletal health, clinical epidemiology, knowledge synthesis “Examining the effects of low back pain and mental health symptoms on health care utilization and costs.” |
Office of Academic Clinical Affairs
Institute for Health Informatics
The PhD program is designed for students seeking the highest level of advanced training in the area of health informatics.
Students take a sequence of core courses in health informatics, computing, and biostatistics, and electives in technical and health science areas, and pursue one of four tracks: Data Science and Informatics for Learning Health Systems ; Clinical Informatics ; Translational Bioinformatics ; or Precision and Personalized Medicine (PPM) Informatics . Students pursuing the Data Science and Informatics for Learning Health Systems track are expected to complete the University’s Data Science MS degree en route to the PhD.
The integration of data science into healthcare dates back to the 1960s when computers began managing patient data, marking the start of medical data utilization. In 1965, the National Library of Medicine launched MEDLINE, one of the first biomedical literature databases, setting the stage for modern medical informatics. 1
Today, data science is revolutionizing patient care through predictive analytics, personalized treatments, and streamlined operations. By applying Big Data strategies, the U.S. healthcare system could potentially generate up to $100 billion annually by optimizing clinical operations, reducing costs, and improving patient outcomes. 2
One of the key benefits of data science is its ability to provide actionable insights that enhance patient outcomes. Analyzing vast healthcare data uncovers patterns and trends that enable early disease detection, treatment optimization, and efficient resource management.
We’ll explore the role of data science in healthcare, its significance, various applications , and the importance of healthcare data scientists. Additionally, we'll discuss how you can leverage data science to make a significant impact in the healthcare industry.
Data science in healthcare involves applying advanced analytical techniques to healthcare data to extract meaningful insights. This interdisciplinary field combines statistics, machine learning, and Big Data technologies to analyze and interpret complex medical data.
At its core, data science is about discovering patterns and making predictions from large data sets. In healthcare, this translates to predicting patient outcomes, personalizing treatment plans, and optimizing resource allocation. Data science is crucial for early detection of chronic diseases, optimizing healthcare spending, and enhancing patient experiences through personalized care.
Traditional data analysis often focuses on descriptive statistics to summarize historical data, while data science goes further by leveraging machine learning and AI for predictive power. For example, predictive models can forecast disease outbreaks, identify at-risk patients before symptoms appear, and recommend personalized treatments based on genetic profiles.
Predictive analytics is a common application of data science in healthcare, using current and historical data to make real-time predictions. For instance, predictive models have significantly reduced mortality rates by identifying patients at risk for sepsis. 3
By combining massive datasets with sophisticated algorithms, data science empowers healthcare professionals to make better, data-driven decisions.
Data science holds immense potential to transform the healthcare sector, impacting everything from patient care to healthcare system efficiency. By leveraging vast amounts of data, healthcare providers can make informed decisions that enhance patient outcomes and streamline operations.
By adopting data science methodologies, healthcare institutions not only improve patient care but also make their operations more cost-effective and efficient. The integration of predictive analytics and machine learning into healthcare practices signifies a shift towards more proactive, personalized, and efficient healthcare delivery.
Data science is applied in innovative ways to improve patient care and optimize healthcare operations. Healthcare organizations are working towards modernizing their data systems and protecting patient information, leveraging data science and technology to enhance patient care and operational efficiency.
Below are some key applications:
One of the most significant impacts of data science in healthcare is its ability to improve patient outcomes. Predictive models can analyze patient data to identify individuals at high risk for diseases, allowing for early interventions. For instance, machine learning algorithms can more accurately predict hospital readmissions than traditional methods, reducing readmission rates and enhancing patient care. 4
Predictive analytics, which uses historical data to forecast future events, is central to this process. Effective data management ensures the quality and security of patient data, which is essential for accurate predictions. In healthcare, predictive analytics can anticipate patient outcomes, identify those at risk for diseases, and recommend preventive measures. Research has shown that predictive models can accurately forecast the onset of conditions like diabetes and heart disease, enabling timely interventions and reducing complications. 5
Personalized medicine uses patient-specific data to create tailored treatment plans. By analyzing genetic information, lifestyle factors, environmental influences, and medical images, healthcare providers can develop customized protocols that are more effective. This approach has been particularly successful in oncology, where personalized treatments have significantly improved patient outcomes and survival rates.
Data science enhances this personalization by enabling deeper analysis of genetic, environmental, and lifestyle data. For example, oncologists can use predictive analytics to identify the most effective chemotherapy protocols for individual cancer patients, optimizing treatment efficacy while minimizing adverse effects.
Data science plays a critical role in predicting disease outbreaks, which is essential for public health planning and response. Machine learning algorithms analyze diverse datasets, including social media trends, travel patterns, and epidemiological data, to forecast potential outbreaks. The Centers for Disease Control and Prevention (CDC) utilized Big Data analytics to predict and manage the Zika virus outbreak in 2016, which significantly improved containment efforts. 6
Operational efficiency is crucial for healthcare institutions striving to deliver high-quality care in a cost-effective manner. Data science plays a key role in optimizing various operational aspects, such as staffing, supply chain management, and patient flow. For example, predictive analytics can forecast patient admission rates, enabling hospitals to allocate resources more efficiently. By using data-driven staffing solutions, hospitals can reduce labor costs while maintaining high standards of care. 7
Data science also transforms healthcare systems by enhancing overall operational efficiencies. Hospitals can leverage data analytics to manage staffing levels, minimize wait times, and optimize resource allocation. A report from the National Institutes of Health highlighted that implementing AI-driven scheduling systems led to a 15% increase in patient throughput and a 12% reduction in operational costs. 8
Healthcare data scientists play a crucial role in harnessing the power of data to improve patient outcomes, streamline operations, and advance medical research. Their responsibilities and skills are diverse, encompassing data collection, analysis, and interpretation. In the field of health data science, the average salary for professionals can vary significantly based on location. Entry-level positions may start at a lower range, while experienced professionals can command higher salaries. Conducting localized salary research is essential to understand the specific figures, with sources like Glassdoor providing valuable insights.
The role of a healthcare data scientist is dynamic and interdisciplinary. The demand for data scientists in healthcare is expected to grow by 35% by 2032, reflecting the increasing reliance on data-driven decision-making in the industry. 9
As healthcare continues to evolve, the integration of data science has proven to be a game-changer, significantly enhancing patient care and operational efficiency. With the increasing complexity of healthcare challenges, the demand for skilled data scientists who can navigate and interpret vast amounts of data has never been higher.
By mastering data science , you can play a pivotal role in advancing healthcare. Whether it's through developing predictive models that save lives, personalizing treatment plans, or optimizing hospital operations, your expertise can have a profound impact on the industry.
If you’re inspired to make a difference, consider advancing your education with a focus on healthcare data science. Many universities now offer specialized programs that equip you with the necessary skills and knowledge to excel in this field. These programs typically cover essential topics such as machine learning, statistical analysis, and healthcare informatics, providing a comprehensive foundation for your career.
Explore New York Institute of Technology’s Online Data Science, M.S. program to gain cutting-edge skills and join the ranks of professionals making significant impacts in healthcare. Our program offers a flexible online learning environment, personalized mentorship, and access to a network of industry experts.
For more information on admissions, course offerings, and career support, visit our admissions page or contact our admissions outreach advisors. Transform healthcare with your data science expertise and be at the forefront of innovation in this vital industry.
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We offer a PhD in Health Informatics program which will prepare scholars to discover and extend their scientific knowledge and advance the science and practice of health informatics. ... Health data science and analytics; Patient and equity-focused health technology interventions ... A202 University of Victoria Victoria BC Canada [email protected] 1 ...
Dual Degree Programs in Public Health Data Science We offer the opportunity to complete a dual degree with the University of Bordeaux in France. ... offer degrees in Public Health Data Science (MSc), or Digital Public Health (PhD) jointly with Epidemiology (MSc and PhD ... Montreal, QC, Canada H3A 1G1 Tel.: 514-398-6258 Fax: 514-398-4503. Column 1.
A Ph.D. degree is the highest academic qualification anyone can earn. And with Harvard Business Review declaring data scientist to be the sexiest job of the 21 st century, a Ph.D. in Data Science should probably be called the sexiest university degree of the century.. Universities in Canada, like the ones in other highly advanced countries, are offering such degrees in abundance.
Graduate studies in Health Information Science. Western's Faculty of Information and Media Studies (FIMS) and Faculty of Health Sciences (FHS) offer three joint degrees: a PhD in Health Information Science, a one year, course-based Master of Health Information Science and a two year, thesis-based Master of Health Information Science.
Our PhD in Health Informatics will prepare scholars to discover and extend their scientific knowledge and advance the science and practice of health informatics. The program is built around our core interdisciplinary specializations: design and structure of health information systems. implementation and evaluation of health information systems.
PhD students in the School of Public Health Sciences can pursue a designated field to exemplify an area of expertise within their broader program. Fields include epidemiology and biostatistics, health evaluation, health informatics, health and environment, global health, aging and health and work and health . The University of Waterloo's unique ...
Graduate programs. In our Data Science programs, you will study the application and development of methods that facilitate insight from available data in order to understand, predict, and improve business strategy, products and services, marketing campaigns, medicine, public health and safety, and numerous other pursuits. Programs.
The Master's of Data Science and Artificial Intelligence is a coursework program designed to meet the growing global demand in the fields of Data Science and Artificial Intelligence. The curriculum recognizes the interdisciplinarity of data science and AI, as well as the importance of experiential learning. The degree requirements include nine ...
Program Description. The Doctor of Philosophy (Ph.D.) in Biostatistics offered by the Department of Epidemiology, Biostatistics, and Occupational Health in the Faculty of Medicine & Health Sciences is a research-intensive program that emphasizes engaging and cutting-edge learning opportunities. The program's objective is to equip students with skills in independent thinking, data analysis, and ...
Increasingly, clinical care generates vast amounts of health data that is largely untapped for routine reporting, surveillance, clinical research, and for informing policy. Many of the major health data assets that exist in Alberta and Canada will be explored through hands-on experience with several datasets.
Dr. Amrita Roy is a family physician and MD-PhD clinician-scientist in the Departments of Family Medicine and Public Health Sciences at Queen's. A settler ally with a research focus in Indigenous health, Dr. Roy works in close collaboration with Indigenous peoples in community-engaged research centred on the principles of Ownership, Control ...
PhD Specializations. Choose from four specializations to increase your ability to generate new knowledge in the field of public health: PhD in Epidemiology. PhD in Health Promotion and Socio-behavioural Sciences. PhD in Health Services and Policy Research. PhD in Public Health.
The School of Population and Public Health offers a research-oriented PhD program that enables students with a masters degree to advance their knowledge and skills in epidemiological and biostatistical methods. Students will further their research training by applying these methods to independent thesis research under the supervision of a faculty member. Students can pursue thesis research in ...
The PhD in Health Quality (PhDHQ) will prepare experts who will improve the delivery of healthcare through teaching, developing new methodologies and theoretical frameworks, as well as testing innovation in the field of health quality. The PhDHQ program offers a collaborative approach to comprehend and address the complexities within the ...
Students enrolled in the Master of Data Science and Analytics program are eligible upon the successful completion of 30 units of coursework. These consist of 12 units of the Graduate Certificate in Fundamental Data Science and Analytics, 12 units of coursework in one of the specialization areas, as well as DATA 691, prior to the internship course.
PhD students are required to attempt the qualifying exam within the first year of entering the program. The examination, which is usually offered in the late summer, involves both theoretical and practical components, divided into three parts. The theoretical component comprises two in-class exams, the first (Part I) covering foundations such ...
The Master of Health Informatics (MHI) program is designed for professionals with backgrounds in public health and/or health care who require more knowledge about computer science and health informatics. Graduates can use this knowledge to identify, design and manage informatics solutions relevant to health and health systems.
Dalhousie University Faculty of Computer Science. Computer science education is an interdisciplinary field of research that leverages advances in theories and methods from education, psychology, computer science, and engineering. Read more. Funded PhD Programme (Students Worldwide) Canada PhD Programme. More Details.
She is the Co-Lead of the Data Science and Health (DASH) Cluster. Raymond Ng, PhD is a professor of Computer Science at the University of British Columbia and the Director of the Data Science Institute. He is also the holder of the Canadian Research Chair on Data Science and Analytics. Guest instructors
HEC Montréal is a founding member of the Institute for Data Valorization (IVADO). The Institute brings together 900 scientists interested in optimization (operational research) and data science. The group has received major funding ($93.6 million) for research into big data mining. HEC Montréal is home to Tech3Lab, the largest user-experience ...
The PhD Program in Health Data Science trains the next generation of data science leaders for applications in public health and medicine. The program advances future leaders in health and biomedical data science by: (i) providing rigorous training in the fundamentals of health and biomedical data science, (ii) fostering innovative thinking for the design, conduct, analysis, and reporting of ...
Degree Overview This program aims to develop excellent epidemiologists, able to work, teach and conduct research on contributors to health; disease, disability and death; and effective measures of prevention. Objective The overall goal of the program is to enable graduates to acquire the necessary scientific knowledge and methodological skills to become independent researchers in epidemiology
The PhD program is designed for students seeking the highest level of advanced training in the area of health informatics. Students take a sequence of core courses in health informatics, computing, and biostatistics, and electives in technical and health science areas, and pursue one of four tracks: Data Science and Informatics for Learning Health Systems; Clinical Informatics; Translational ...
The integration of data science into healthcare dates back to the 1960s when computers began managing patient data, marking the start of medical data utilization. In 1965, the National Library of Medicine launched MEDLINE, one of the first biomedical literature databases, setting the stage for modern medical informatics. 1 Today, data science is revolutionizing patient care through predictive ...