This research methods course provides a foundation for using statistical methods in order to
investigate health-related research questions. The Scientific Methods for Health Sciences (SMHS):
Linear Modeling course (HS852) builds on concepts learned in prerequisite course
HS 851 (SMHS: Applied Inference)
course, e.g., univariate statistics; study design; data acquisition and management; and conceptual
modeling. Modeling topics covered in HS852 include simple linear regressions, generalized linear
models, linear mixed models, longitudinal data analytics, modern machine learning (ML) and some
artificial intelligence (AI) methods. Teaching methods include lectures, laboratory sessions,
independent readings and explorations, and assignments, as well as, review, critique, and
writing scientific papers. Assessment of the student's knowledge and understanding of the
material will culminate in a term-paper research project that addresses a research question
using methods covered in HS852. This is an applied graduate-level course that emphasizes
the foundational principles and practical aspects of data, statistical, and analytical
methods.
You can view the General SMHS Prerequisites to ensure students are comfortable with taking this SMHS HS852 course prior to enrolling in the course, or contact the instructor.
Students will learn how to:
(1) Apply, compare and evaluate advanced statistical concepts, grasp model assumptions and limitations and apply them for quantitative analyses in healthcare research.
(2) Apply multivariate statistical modeling that are appropriate to specific research designs, research questions, and expected inference and applications.
(3) Evaluate, contrast, and select appropriate advanced data science, statistical modeling, and AI techniques for specific types of clinical, translational, and biomedical studies.
(1) Conduct multiple and multivariate statistical and analytical methods for specific case-studies.
This course will be appropriate for graduate students who have significant interest in learning data-driven, evidence-based, and advanced-technology methods for scientific inquiry and predictive analytics. All students are expected to commit substantial amount of time to focused undivided attention to the basic scientific methods, translational biomedical and health applications, and transdisciplinary interactions with colleagues from multiple domains.
Class notes, datasets, and learning materials will be provided. This course will cover topics like managing data with R, various model-based and model free forecasting methods, predictive analytics, evaluation of regression and classification performance, ensemble methods, and ML/AI techniques.
Ivo D. Dinov, SOCR, MCAIM, MIDAS, DCMB, SPL/UMSN.
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