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  LEARNING OBJECTIVES

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DEPARTMENT OF BIOSTATISTICS



Master of Public Health Program


Upon satisfactory completion of the MPH degree, all graduates will be able to demonstrate a broad knowledge and skills base in the core areas of public health, with particular emphasis in a selected field of public health, and will be able to:

  • Apply epidemiologic methods to the measurement of disease rates, prevention of infectious diseases, and the development and evaluation of health programs and policies;

  • Apply statistical methods of estimation and hypothesis testing and explain the basics of correlation and regression for the purpose of analyzing the health of populations;

  • Analyze how environmental contaminants (chemical, physical and other exposures) interact with biological systems and their effect on human populations for the purpose of evaluating risk reduction strategies;

  • Assess the impact on health policy options of social, political, technological, economic and cultural forces, and apply basic management techniques to address organizational challenges to providing health care;

  • Examine public health issues and responses from a social and behavioral sciences perspective and explain social, cultural, political, economic, and behavioral determinants of disparities in health status among population sub-groups; and

  • Demonstrate knowledge and skills for effective practice in their selected field of study.

Within the context of these overall learning objectives of the MPH program, the Department of Biostatistics has identified additional objectives for its students.


Master of Public (MPH)

The MPH degree in Biostatistics (BIO) is designed to enhance the quantitative skills of public health practitioners who use statistics frequently in their work.   This degree is intended primarily for specialists in public health who wish to use and adapt statistical procedures for health and medical care programs, or wish to serve in a technical capacity as resource person and collaborators in field and programmatic studies. Successful completion of the MPH in Biostatistics indicates adequate preparation for the DrPH program.  Graduates of the MPH degree in BIO complete 45 credit hours and a field practicum.

Upon satisfactory completion of the MPH degree in BIO, graduates will be able to:

Data Analysis and Computing

  • Formulate and produce graphical displays of quantitative information (e.g., scatter plots, box plots, line graphs) that effectively communicate analytic findings;

  • Explain general principles of study design in attempting to identify risk factors for disease, isolate targets for prevention, and assess the effectiveness of one or more interventions;

  • Select and perform appropriate hypothesis tests for comparing two or more independent exposure groups, or two or more groups of matched/clustered subjects, with respect to a discrete or continuous response measurement of interest;

  • Interpret associations estimated via linear regression, logistic regression, and Cox models for survival data;

  • Interpret quantitative findings in accurate, accessible language for colleagues outside of biostatistics, as well as for broader dissemination to the public and other public health professionals;

  • Apply the basic tenets of research design and analysis for the purpose of critically reviewing research and programs in disciplines outside of biostatistics;

  • Differentiate between quantitative problems that can be addressed with standard methods and those requiring input from a professional biostatistician;

Public Health and Collaborative Research

  • Describe the foundations of public health, including the biological, environmental, behavioral, and policy factors that affect the health of populations;

  • Translate research objectives into testable hypotheses;

  • Compare and contrast different study designs and their implications for inference in medical/public health research;

  • Describe basic principles and the practical importance of key concepts from probability and inference (including random variation, systematic error, sampling error, measurement error, hypothesis testing, type I and type II errors, confounding bias, and effect modification) to colleagues without extensive statistical training;

  • Develop and execute power and sample size calculations for research studies utilizing simple random sampling;

  • Formulate and prepare written plans for statistical analysis of research data from medicine and public health that clearly reflect the research hypotheses of the proposal in a manner that resonates with both co-investigators and grant reviewers;

Teaching Biostatistics

  • Review and illustrate selected principles of study design, probability theory, estimation, hypothesis testing, and data analytic techniques to public health students enrolled in first and second level graduate public health courses; and

Biostatistical Research

  • Apply probabilistic and statistical reasoning to structure thinking and solve a wide range of problems in public health.

 

Master of Science (MS)

Students in the MS degree in BIO degree program select one of three tracks of specialization: Theory and Methods, Clinical Research Methods, and Patient Oriented Research.  The three specialty tracks include the core MS degree in BIO learning objectives plus additional objectives specific to each area of emphasis.  The Theory and Methods track is designed for the student interested in a career as a biostatistician. It provides sufficient preparation for students who want to pursue doctoral degrees in biostatistics. The Clinical Research Methods track provides formal, rigorous training in the design and analysis of clinical research studies. It is designed for physicians, nurses, dentists, pharmacists, and other health care professionals with extensive clinical research experience who require superior skills in applied statistics in order to better pursue research in their own fields of expertise. The Patient Oriented Research track is a broadly based didactic training program that prepares young investigators for independent careers as clinical scientists. In contrast with the Clinical Research Methods track, all candidates in the Patient Oriented Research track must have completed a doctorate in a clinical discipline prior to enrollment. This program is further distinguished from the Clinical Research Methods track in that it is supported by a K30 - Clinical Research Curriculum Development Award from the NIH. The Patient Oriented Research track offers 6 scholarships per year to exceptional applicants.


Upon satisfactory completion of the MS degree in BIO, graduates will be able to:

Data Analysis and Computing

  • Formulate and produce graphical displays of quantitative information (e.g., scatter plots, box plots, line graphs) that effectively communicate analytic findings;

  • Explain general principles of study design in attempting to identify risk factors for disease, isolate targets for prevention, and assess the effectiveness of one or more interventions;

  • Select and perform appropriate hypothesis tests for comparing two or more independent exposure groups, or two or more groups of matched/clustered subjects, with respect to a discrete or continuous response measurement of interest;

  • Interpret associations estimated via linear regression, logistic regression, and Cox models for survival data;

  • Apply the basic tenets of research design and analysis for the purpose of critically reviewing research and programs in disciplines outside of biostatistics;

  • Interpret quantitative findings in accurate, accessible language for colleagues outside of biostatistics, as well as for broader dissemination to the public and other public health professionals;


Public Health and Collaborative Research

  • Translate research objectives into testable hypotheses;

  • Compare and contrast different study designs and their implications for inference in medical/public health research;

  • Describe basic principles and the practical importance of key concepts from probability and inference (including random variation, systematic error, sampling error, measurement error, hypothesis testing, type I and type II errors, confounding bias, and effect modification) to colleagues without extensive statistical training;

  • Develop and execute power and sample size calculations for research studies utilizing simple random sampling; and

  • Evaluate research reports and proposals for research funding on the basis of their scientific integrity, validity, and the strength of the quantitative analysis.


Theory and Methods - Track Specific Learning Objectives


Graduates of this track will be able to:

Public Health and Collaborative Research

  • Develop and execute calculations for power and sample size when planning research studies with complex sampling schemes;

  • Formulate and prepare a written statistical plan for analysis of public health research data that clearly reflects the research hypotheses of the proposal in a manner that resonates with both co-investigators and peer reviewers;

  • Prepare written summaries of quantitative analyses for journal publication, presentations at scientific meetings, grant applications, and review by regulatory agencies;

Data Management

  • Identify the uses to which data management can be put in practical statistical analysis, including the establishment of standards for documentation, archiving, auditing, and confidentiality; guidelines for accessibility; security; structural issues; and data cleaning;

  • Differentiate between analytical and data management functions through knowledge of the role and functions of databases, different types of data storage, and the advantages and limitations of rigorous data base systems in conjunction with statistical tools;

  • Describe the different types of database management systems, the ways these systems can provide data for analysis and interact with statistical software, and methods for evaluating technologies pertinent to both;

  • Assess database tools and the database functions of statistical software, with a view to explaining the impact of data management processes and procedures on their own research;

Teaching Biostatistics

  • Review and illustrate selected principles of study design, probability theory, estimation, hypothesis testing, and data analytic techniques to public health students enrolled in first and second level graduate public health courses; and

Biostatistical Research

  • Apply probabilistic and statistical reasoning to structure thinking and solve a wide range of problems in public health.

 

Clinical Research Methods - Track Specific Learning Objectives


Graduates of this track will be able to:

Data Analysis and Computing

  • Apply the basic tenets of research design and analysis for the purpose of critically reviewing research and programs in disciplines outside of biostatistics;

  • Differentiate between quantitative problems that can be addressed with standard methods and those requiring input from a professional biostatistician.

Public Health and Collaborative Research

  • Formulate and prepare a written statistical plan for analysis of public health research data that clearly reflects the research hypotheses of the proposal in a manner that resonates with both co-investigators and peer reviewers;

  • Prepare written summaries of quantitative analyses for journal publication, presentations at scientific meetings, grant applications, and review by regulatory agencies;

Data Management

  • Identify the uses to which data management can be put in practical statistical analysis, including the establishment of standards for documentation, archiving, auditing, and confidentiality; guidelines for accessibility; security; structural issues; and data cleaning;

  • Differentiate between analytical and data management functions through knowledge of the role and functions of databases, different types of data storage, and the advantages and limitations of rigorous data base systems in conjunction with statistical tools;

  • Describe the different types of database management systems, the ways these systems can provide data for analysis and interact with statistical software, and methods for evaluating technologies pertinent to both; and

  • Assess database tools and the database functions of statistical software, with a view to explaining the impact of data management processes and procedures on their own research;


Patient Oriented Research - Track Specific Learning Objectives


Graduates of this track will be able to:

Data Analysis and Computing

  • Apply the basic tenets of research design and analysis for the purpose of critically reviewing research and programs in disciplines outside of biostatistics;

  • Differentiate between quantitative problems that can be addressed with standard methods and those requiring input from a professional biostatistician; and

Public Health and Collaborative Research

  • Discuss basic laboratory methods commonly used in patient oriented research.

 

Doctor of Public Health (DrPH)

The DrPH degree in BIO is designed for persons who wish to apply state-of-the-art statistical methods to the solution of important public health problems. 

In addition to meeting the learning objectives of the MPH in BIO, graduates of the DrPH degree in BIO will be able to:

Data Analysis and Computing

  • Identify and implement advanced statistical models for the purposes of estimation, comparison, prediction, and adjustment in non-standard settings;

Public Health and Collaborative Research

  • Describe the foundations of public health, including the biological, environmental, behavioral, and policy factors that affect the health of populations;

  • Develop and execute calculations for power and sample size when planning research studies with complex sampling schemes;

  • Formulate and prepare a written statistical plan for analysis of public health research data that clearly reflects the research hypotheses of the proposal in a manner that resonates with both co-investigators and peer reviewers;

  • Evaluate research reports and proposals for research funding on the basis of their scientific integrity, validity, and the strength of the quantitative analysis;

  • Prepare written summaries of quantitative analyses for journal publication, presentations at scientific meetings, grant applications, and review by regulatory agencies;

Data Management

  • Identify the uses to which data management can be put in practical statistical analysis, including the establishment of standards for documentation, archiving, auditing, and confidentiality; guidelines for accessibility; security; structural issues; and data cleaning;

  • Differentiate between analytical and data management functions through knowledge of the role and functions of databases, different types of data storage, and the advantages and limitations of rigorous data base systems in conjunction with statistical tools;

  • Describe the different types of database management systems, the ways these systems can provide data for analysis and interact with statistical software, and methods for evaluating technologies pertinent to both;

  • Assess database tools and the database functions of statistical software, with a view to explaining the impact of data management processes and procedures on their own research;

Teaching

  • Review and illustrate selected principles of study design, probability theory, estimation, hypothesis testing, and data analytic techniques to public health students enrolled in first and second level graduate public health courses;

  • Explain advanced concepts in the theory of statistical inference to graduate students in biostatistics and mathematical statistics;

Biostatistical Research

  • Identify and integrate new developments in the statistical literature for challenging research problems in public health; and

  • Generate original computer code for new statistical techniques.


Doctor of Philosophy (PhD)

The program requirements for the PhD degree in BIO differ from those for the DrPH in that the curriculum, examinations and dissertation involve more emphasis on statistical theory in the context of public health applications.

In addition to meeting the learning objectives of the MS Theory and Methods track, graduates of the PhD program in BIO will be able to:


Data Analysis and Computing

  • Identify and implement advanced statistical models for the purposes of estimation, comparison, prediction, and adjustment in non-standard settings;

Public Health and Collaborative Research

  • Develop and execute calculations for power and sample size when planning research studies with complex sampling schemes;

  • Formulate and prepare a written statistical plan for analysis of public health research data that clearly reflects the research hypotheses of the proposal in a manner that resonates with both co-investigators and peer reviewers;

  • Evaluate research reports and proposals for research funding on the basis of their scientific integrity, validity, and the strength of the quantitative analysis;

  • Prepare written summaries of quantitative analyses for journal publication, presentations at scientific meetings, grant applications, and review by regulatory agencies;

Data Management

  • Identify the uses to which data management can be put in practical statistical analysis, including the establishment of standards for documentation, archiving, auditing, and confidentiality; guidelines for accessibility; security; structural issues; and data cleaning;

  • Differentiate between analytical and data management functions through knowledge of the role and functions of databases, different types of data storage, and the advantages and limitations of rigorous data base systems in conjunction with statistical tools;

  • Describe the different types of database management systems, the ways these systems can provide data for analysis and interact with statistical software, and methods for evaluating technologies pertinent to both;

  • Assess database tools and the database functions of statistical software, with a view to explaining the impact of data management processes and procedures on their own research;

Teaching

  • Review and illustrate selected principles of study design, probability theory, estimation, hypothesis testing, and data analytic techniques to public health students enrolled in first and second level graduate public health courses;

  • Explain advanced concepts in the theory of statistical inference to graduate students in biostatistics and mathematical statistics;

Biostatistical Research

  • Identify and integrate new developments in the statistical literature for challenging research problems in public health;

  • Generate original computer code for new statistical techniques;

  • Recognize gaps in current inferential methods that limit further public health research and propose solutions based on rigorous theoretical justification; and

  • Develop guidelines for practical implementation and evaluation of public health research and programs.


Department of Biostatistics . W 722 West 168th Street, Floor R-6, New York, NY 10032
Phone: 212-305-9398 . Fax: 212-305-9408
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