Health Management & Policy (HMP)
https://chhs.unh.edu/health-management-policy
The Department of Health Management and Policy prepares students for a wide range of professional careers within the healthcare and public health fields, such as the Master of Science in Health Data Science, the Graduate Certificate in Health Data Science1, the Master of Public Health and the Graduate Certificate in Public Health2. Students have up to three years to complete their degree. Through rich classroom experience, hands-on learning and opportunities to engage in research and community outreach, our graduates go on to work in settings that include complex health systems, government, non-profit, finance, public health and health data science.
1Beginning in the 2023-2024 academic year, the Master or Science in Health Data Science program is pausing admissions to the program. Current students will continue to have access to the same high-quality education and resources until they graduate.
2The Public Health (MPH), and Public Health Certificate programs are pausing admissions to the program for the 2024-2025 academic year. Current students will continue to have access to the same high-quality education and resources until they graduate
HMP 933 - Quality and Process Improvement in Healthcare
Credits: 3
This course introduces analytics tools to improve healthcare quality and processes. Topics include quality measures and indicators, project and change management, six sigma components, and lean. A majority of the course will focus on using data relevant tools, and techniques for each of the six-sigma phases: Define, Measure, Analyze, Improve, and Control (DMAIC). Define and measure phases start with a review of probability and distribution rules and various descriptive analytics tools. These phases also include development and application of process maps, flow charts, Pareto charts, relationship matrix, and written procedures. Analyze phase includes hypothesis testing and design of experiments. Improve and control phases include root cause analysis, statistical process control, and lean tools.
Equivalent(s): NURS 933
Grade Mode: Letter Grading
View Course Learning Outcomes
- Explain what six sigma is, and its data-driven management requirements.
- Understand what constitutes a measurable QI project including global and specific aims, implementation plan, and identifying key performance indicators.
- Visualize a process or system through process maps, value stream maps, and SIPOC models.
- Explore various models of sharing/visualizing data to ensure the presentation captures the audience's attention, understanding, business needs, and desired objective for action or support.
- Use Statistical Process Control to assess process performance over time and baseline current state performance.
- Examine data for quality issues and learn how to evaluate the capability of measurement systems.
- Explore data to learn about processes, finding potential causal relationships, and building predictive analytic models for testing.
- Apply powerful statistical tools to find root causes of quality problems, evaluate possible solutions, evaluate impact of interventions.
HDS #800 - Mathematics and Statistics for Health Data Science
Credits: 3
This course covers the foundations of probability and inferential statistics as well as foundations of linear algebra and matrices. After completion of this course, students should be comfortable with performing basic analysis of data including descriptive statistics, data visualization and appropriate statistical tests. Different probability distributions will be introduced along with hypothesis testing, confidence intervals, linear regression, and ANOVA.
Grade Mode: Letter Grading
HDS 801 - The U.S. Healthcare System
Credits: 3
Focuses on the organization, financing, and delivery of healthcare in the U.S. Contrasts the private and public sectors and examines the effects of market competition and government regulation. Examines the ways that medical providers are paid, and explores the major issues currently facing physicians, hospitals, and the pharmaceutical industry. Discusses several potential small-scale and large-scale reforms to the healthcare system and evaluates their likely effects on healthcare spending, quality of care, and access to care.
Equivalent(s): ADMN 801
Grade Mode: Letter Grading
HDS 802 - Programming in Healthcare Environments
Credits: 3
This course covers using Python as a programming language to write, implement, and design programs that are relevant to various aspects of programming in a health setting. After completion of this course, students should be comfortable with the basic data structures in Python and R (including arrays, dictionaries, and dataframes), conditional logic and iterators, writing Python and R functions, and using Python libraries to read external data and perform data manipulations and data analysis.
Grade Mode: Letter Grading
HDS 803 - Translation of Health Data
Credits: 3
This course will give you the skills you need to leverage data to reveal valuable insights and advance your career. This course teaches you the visualization skills necessary to be effective Data Storytellers which helps engage your audience in a story about the data. This course focuses on concepts as well as hands-on experience of presenting data from initial concepts to final presentation by creating meaningful displays of quantitative and qualitative data to facilitate peer/managerial decision making.
Prerequisite(s): HDS 801 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 804 - Health Data Systems
Credits: 3
In this course, students will learn the landscape of data used in healthcare settings, engage in active case applications and case studies, and propose a decision support system improvement. It examines modern decision support systems, types of applications, both mobile and web based, enterprise versus cloud-based systems. Specifically examined will be the Electronic Health Record (EHR) and other clinical and administrative information systems. Also examined will be interoperability and regulatory requirements.
Prerequisite(s): HDS 801 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 805 - Applied Machine Learning in Healthcare
Credits: 3
This course covers the foundations of machine learning in healthcare systems including algorithms related to classification and regression prediction in supervised setting, clustering and dimension reduction in an unsupervised setting. Topics include data preprocessing and classification techniques such as logistic regression, support vector machines, KNN, Na'ive Bayes', ensemble methods such as random forests, boosted trees, XGBoost, dimension reduction techniques such as principal components analysis, t-distributed scholastic neighborhood embedding, ISOMAP, locally linear embedding, UMAP, multidimensional scaling.
Prerequisite(s): HDS #800 with a minimum grade of B- and HDS 801 with a minimum grade of B- and HDS 802 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 806 - Outcomes Research
Credits: 3
This course examines the evidence developed through the lens of outcomes research relative to clinical care and public/population health initiatives. It explores the development of study design, developing a workable research question and associated proposed study methods. The course explores frequently used study designs, techniques for evaluating/selecting health outcomes measures, and analytical approaches appropriate to conducting health outcomes research. Students will construct an independent research protocol, which will be developed in increments as course evolves.
Prerequisite(s): HDS 804 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 807 - Unstructured Health Data
Credits: 3
This course covers the essential unstructured data formats, storage platforms and methods of retrieving and analyzing such data in the healthcare system. Specifically, the course will cover electronics health records, patient health portals, telemedicine videos, ICU sensor data, genomic data, biomedical literature, social media data, biomedical image data and physician notes.
Prerequisite(s): HDS 805 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 808 - The Successful Healthcare Project
Credits: 3
This course supports the design and initiation of the Practicum Health Data Science project required for completion of the Master of Health Data Science program. Students may elect to enroll in this course before beginning the practicum or concurrently with the practicum. The course covers definition of a high value research topic, development of a project plan and project launch. Students will complete key project milestones including negotiation of a project charter, development of an approved analysis plan, and demonstrate access to required data.
Prerequisite(s): HDS #800 with a minimum grade of B- and HDS 801 with a minimum grade of B- and HDS 802 with a minimum grade of B- and HDS 803 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS #811 - Health Data Science Practice
Credits: 3
In this course, students will work to develop a data science thesis project with both an outside mentor and a faculty advisor. This course essentially bridges the entire curriculum, but builds over the coursework to the final presentation at the students' second residency prior to completing the program. Each student on a team will be required to justify the completion of practicum hours.
Prerequisite(s): HDS 808 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS #820 - Health Systems Informatics
Credits: 3
This course introduces students to data structures and data manipulation found in US Health Systems from the perspective of a data scientist in the role of health informaticist. Students will learn how to conceptualize the data ecosystem from input and data collection, secondary use, storage, retrieval and analysis. The course also promotes understanding of health data coding, applicability and validity. Students will explore health insurance claims data, public surveillance system data and administrative system data.
Prerequisite(s): HDS 801 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS #821 - Big Data Algorithms in Biological Sciences
Credits: 3
This course covers several topics in computational biology with a focus on data science algorithms for processing massive sequencing data on the cloud, such as processing data on Amazon Web Services (AWS). Students will learn the prerequisites of data analysis on a cloud service including storage of virtual private clouds, file systems and security as well as the importance of maintaining a low-cost, high-efficiency work environment.
Prerequisite(s): HDS 802 with a minimum grade of B- and HDS 805 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS #822 - AI and Deep Learning in Healthcare
Credits: 3
This course covers the essentials of deep learning artificial neural network models. The course will cover topics like basic structure of ANN, gradient descent, various cost functions, role of activation functions in ANN, shallow vs deep learning, hyper parameter tuning, model optimization for speed, regularization methods, transfer learning and the newest of all generative adversarial networks (GAN).
Prerequisite(s): HDS 807 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS #823 - Advanced Statistics in Healthcare
Credits: 3
This course covers the essential advanced statistical techniques employed by Biostatisticians in clinical trials and healthcare research. After completion of this course, students should be comfortable with various advanced multivariate statistical techniques such as multiple discriminant analysis (MDA), multiple analysis of variance (MANOVA), Conjoint analysis, Factor analysis, multiple correspondence analysis (MCA), and hierarchical linear modeling (HLM).
Prerequisite(s): HDS #800 with a minimum grade of B-.
Grade Mode: Letter Grading
HDS 890 - HDS Independent Study
Credits: 3-6
This course will be designed by the student and the instructor. Course topics and deliverables will be established together and approved by the supervising faculty. Credit hours (not to exceed 6-credit hours) will be determined by the supervising faculty based on the size and scope of the student's intended project.
Grade Mode: Letter Grading
HMP 933 - Quality and Process Improvement in Healthcare
Credits: 3
This course introduces analytics tools to improve healthcare quality and processes. Topics include quality measures and indicators, project and change management, six sigma components, and lean. A majority of the course will focus on using data relevant tools, and techniques for each of the six-sigma phases: Define, Measure, Analyze, Improve, and Control (DMAIC). Define and measure phases start with a review of probability and distribution rules and various descriptive analytics tools. These phases also include development and application of process maps, flow charts, Pareto charts, relationship matrix, and written procedures. Analyze phase includes hypothesis testing and design of experiments. Improve and control phases include root cause analysis, statistical process control, and lean tools.
Equivalent(s): NURS 933
Grade Mode: Letter Grading
View Course Learning Outcomes
- Explain what six sigma is, and its data-driven management requirements.
- Understand what constitutes a measurable QI project including global and specific aims, implementation plan, and identifying key performance indicators.
- Visualize a process or system through process maps, value stream maps, and SIPOC models.
- Explore various models of sharing/visualizing data to ensure the presentation captures the audience's attention, understanding, business needs, and desired objective for action or support.
- Use Statistical Process Control to assess process performance over time and baseline current state performance.
- Examine data for quality issues and learn how to evaluate the capability of measurement systems.
- Explore data to learn about processes, finding potential causal relationships, and building predictive analytic models for testing.
- Apply powerful statistical tools to find root causes of quality problems, evaluate possible solutions, evaluate impact of interventions.