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Mastering applied statistics goes beyond simply collecting, organizing, and analyzing data. It also involves deriving meaningful insights from that information, and communicating those insights effectively to people without statistical backgrounds. By learning to tell stories using data analysis, statisticians can have an integral voice within their organizations when the conversation turns to interpreting findings and taking action.
Prepare to meet the growing demands of today's data-dominated employment landscape, and become more equipped to make an impact in nearly any industry, in nearly any situation where people need answers. CSU's online statistics master's program helps you learn to ask the right questions, so you can accurately design and implement statistical procedures, and produce precise and meaningful results.
CSU's online master's in statistics prepares you to confidently measure, control, and communicate uncertainty. You will also gain the tools to effectively present findings to help guide organizational, scientific, and societal advances.
Hone your analytical skills and become an essential resource to meet industry needs. As a graduate student in the online statistics program, you will:
Students in this program can choose to specialize in either statistical science or data science. Both of these specializations share a set of common coursework and also share some of the same electives. However, students will also complete coursework unique to their chosen area of focus.
CSU's Master of Applied Statistics is designed to enable students to start working as practicing statisticians in industry, government, or academia immediately after graduation. Taught by the same faculty, and featuring the same curriculum as the on-campus program, you earn the same regionally accredited degree as on-campus students. Considered a terminal degree, this program is intended for those who plan to pursue a career outside of academia, rather than pursue a Ph.D.
Statistics and data science are not only rapidly growing fields, but can also be quite lucrative career paths. According to PayScale, the median annual salary for statisticians as of 2018 is $71,804 and the average for IT data scientists is $90,797, not including additional compensation such as bonuses and profit sharing. Jobs for mathematicians and statisticians are also expected to increase by approximately 33% between 2016 and 2026, according to the US Bureau of Labor Statistics, significantly faster than the average growth rate for all occupations.
Not surprisingly, the ability to collect and effectively analyze large sets of data is a highly valued skill in nearly every major industry, including:
According to the American Statistical Association (ASA), trained analysts who can help make informed, data-driven decisions are becoming increasingly sought-after employees. Organizations of all sizes are seeking professionals with the ability to turn vast data sets into actionable information. Additionally, technological advances have allowed data processing to become more efficient and less expensive, making analysis of large, related data sets possible. These advancements, known as Big Data, involve new techniques related to the capture, curation, storage, search, sharing, transfer, analysis, and visualization of data and analysis.
Jobs in the field of applied statistics and data science include:
What do students have to say about our applied statistics master's degree program? Get a glimpse of their experiences, hear what they think about CSU's faculty and curriculum, and discover how online education is impacting people just like you.
See how Tracy is using what she's learned in CSU's online applied statistics program to create a more environmentally sustainable lifestyle.
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All courses are delivered online via our learning management system, Canvas. You are not required to 'attend' class at a given time, allowing you to work your studies into your existing schedule. The program can be completed in less than a year for full-time students and less than two years for part-time students. Although the online format of this degree offers flexibility, it still requires the same amount of work and time as an on-campus graduate program. The approximate time commitment per week for any 8-week course is 6 hours per credit, for a total of 12 hours for a 2-credit course. The total time may vary per student, but please plan for the minimum recommended time when taking the Subterm courses for the M.A.S. Program.
In your courses you will:
Your interactions with faculty depend on the specific course, but generally, your instructors have online or telephone office hours and are available by email or course discussion boards.
Kirsten Eilertson is an applied statistician and splits her time between collaborative research, consulting, and teaching. As an applied statistician, she has worked with scientists in a variety of fields from evolutionary biology, behavioral neuroscience, biomechanics, functional genomics, and most recently quantitative epidemiology. Her research involves the application of statistical modeling to address specific challenges. Eilertson is a member of the Vaccine Impact Modelling Consortium. Her work has contributed to the development of a novel state-space model for estimating measles disease burden at the country level. The primary aim of this work is to improve understanding of the impact on public health measures.
Jay Breidt has expertise in survey sampling, time series, nonparametric regression, and uncertainty quantification for complex scientific models. He has an extensive record of refereed publications and has presented over 130 invited short courses, conference talks, and academic seminars. Since 1991, his research has been supported continuously by a variety of agencies including the National Science Foundation, National Institutes of Health, Department of Homeland Security, EPA, US Forest Service, and NASA. Breidt is the Reviews Editor for the Journal of the American Statistical Association and The American Statistician. He serves on the U.S. Bureau of the Census Scientific Advisory Committee and has served on six review committees for the National Academy of Sciences. Breidt has received numerous honors, including recognition with a national prize in environmental statistics, elected membership in the International Statistical Institute, and elected fellowship in the American Statistical Association and the Institute of Mathematical Statistics.
Cooley’s research is primarily in extreme value analysis, which aims to characterize the tail of the distribution. Specifically, his research has focused on describing and modeling extremal dependence both in the multivariate and spatial cases. Much of his research is motivated by quantifying risk associated with extreme weather events and Cooley has collaborated with atmospheric scientists at institutions such as the National Center for Atmospheric Research and the Berkeley National Labs.
Dr. Fosdick's primary research interests lie in the development of statistical methods for analyzing network data, with particular attention to applications in ecology and the social sciences. She also studies covariance models for multiway data, Bayesian statistics, and methods for survey analysis.
Hoeting's research is focused in the areas of Bayesian statistics, spatial statistics, and model selection and uncertainty. Much of her research is aimed at developing new statistical methods to address problems in ecology. Hoeting is the founding editor of the journal Advances in Statistical Climatology, Meteorology and Oceanography (ASCMO). Hoeting's book, Computational Statistics (co-authored by Geof Givens), has been adopted as a textbook at top universities in the US and in over 25 other countries. Hoeting has been advisor to more than 30 Ph.D. and M.S. students. Hoeting is an elected Fellow of the American Statistical Association (ASA) and received the Distinguished Achievement Medal from the ASA’s Section on Statistics and the Environment. In 2015, she was named Professor Laureate of the College of Natural Sciences at Colorado State University.
Kokoszka’s research is concerned with statistical modeling and inference. Areas of current interest include: functional data analysis, time series and extreme value theory. Kokoszka serves on several editorial boards, including Journal of the American Statistical Association, Journal of Multivariate Analysis, Scandinavian Journal of Statistics, and Journal of Time Series Analysis. He is a fellow of the Institute of Mathematical Statistics.
Meyer’s main area of research is estimation and inference in statistical models with inequality constraints. This includes non-parametric function estimation using constrained regression splines, density and hazard function estimation with shape constraints, models with order restrictions. Meyer has been published in STATISTICAL SCIENCE, the Journal of the Royal Statistical Society, and the Canadian Journal of Statistics.
Nielsen currently serves as an assistant professor in CSU’s Department of Statistics, specializing in statistics education. He has instructed STAT 201, 204, 301, 315, 460, 472, and 581A4 and STAA 574, in addition to several Math and Stat courses at the University of Colorado.
Shaby develops statistical theory and methods to study extreme weather events and high-throughput biological experiments. He works with climate scientists, hydrologists, and wildfire scientists in academia and government to understand and mitigate the risks associated with rare, high-impact events. Shaby was the recipient of a National Science Foundation CAREER award in 2018 and the American Statistical Association Section on Statistics and the Environment's Early Career Investigator Award in 2016. He completed his Ph.D. at Cornell University in 2009 and held postdoctoral appointments at Duke University and UC Berkeley.
Dr. Sharp is an applied statistician with extensive collaborative experience across multiple domains. Her statistics research arises from collaborative projects and includes experimental design, generalized linear mixed models, and categorical data analysis.
Wang’s research includes object-oriented data analysis, functional dynamic modeling, and spatial statistics. His primary research centers on developing new mathematical and statistical methods to solve problems from various scientific research fields. Object oriented data, such as tree-structured data, random graphs, manifold data, and curve data, are frequently collected. In object-oriented data analysis, many problems were motivated by data from neuro-image, which can be represented by a set of tree-structured objects. The fundamental properties of the topological structures were studied. Wang is particularly interested in the problem of modeling tree-structured data to explain the relationship between tree-structured covariates and numerical response, and/or between numerical covariates and tree-structured response. Recently, his research interest centers on the development of novel statistical learning tools for analyzing big data collected from various networks.
Weller works as a statistical consultant in the Graybill Statistics Laboratory. He is broadly interested in applied statistics for solving problems in and related to ecology, environmental health, energy, biology, wildlife management, animal science, and the environment. Weller is also interested in scientific communication, the intersection of science and policy, and statistics education.
Dr. Wilson's research focuses on the development of statistical methodology for the analysis of complex environmental health data with the motivation of better understanding how exposure to air pollution and environmental chemicals influences human health.
Dr. Zhou's primary research interests focus on high dimensional inference and statistical machine learning, with particular applications to genomics, genetics, integrative analysis of omics type data, and structural biology. He also pursue researches on graphical modeling, system biology, optimization, and game theory.
Rapid advances in our capacity to acquire and store data have produced an urgent demand in business, industry, and government for capable data scientists who can extract useful information from large data sets. This specialization within the online M.A.S. degree incorporates data exploration and analysis techniques with a business focus to complement the statistical foundations of the program.
The field of data science primarily deals with the collection, storage, organization, analysis, interpretation, and visualization of large volumes of data. Data scientists use interdisciplinary techniques to provide answers to complex questions. The job of a data scientist may include using scientific computing techniques, machine learning, analytics, and modeling tools to assess trends, patterns, and behaviors or forecast potential outcomes. Statistical inference and machine learning are foundational to the field of data science and empower researchers to extract specific information from massive data sets.
CSU's online Master of Applied Statistics – Data Science Specialization emphasizes the practical and business-related applications of statistical analysis and data science. Be ready to start working as a data scientist in business, industry, or government immediately after graduation. During the program, you will receive a strong background in applied statistical procedures, analytics, data visualization, and statistical computing.
A minimum of 30 credits are required to complete this program.
Note: Prior to beginning courses in the fall semester, students are required to successfully complete the following two noncredit courses during the summer:
Note: Students are required to successfully complete three credits from the following courses:
The ability to understand and make inferences from various types of data is an invaluable skill in many different industries. Practicing statisticians are adept at designing experiments, studies, and surveys, and efficiently analyzing the data obtained from them. In addition to drawing meaningful insights from large pools of data, statisticians can also implement various methods for predicting outcomes based on quantitative information.
The Master of Applied Statistics – Statistical Science Specialization emphasizes practical methods in statistics, focusing on real-world applications, rather than theory. Throughout the program, you will acquire a background in applied statistical procedures, data visualization, and statistical computing, gaining the skills to practice as an applied statistician in industry or government upon graduation.
A minimum of 30 credits are required to complete this program.
Note: Prior to beginning courses in the fall semester, students are required to successfully complete the following two noncredit courses during the summer:
As a student in CSU's online applied statistics master's program, you receive the same education, learn from the same faculty, and earn the same regionally accredited degree as students on campus. Additionally, you can expect:
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Apply NowThe Master of Applied Statistics (M.A.S.) requires applicants to have the following:
Note that meeting the minimum department standards does not ensure admission to the program. Admission to Colorado State University graduate programs is based on a number of factors, including prior academic and professional experience and your personal statement.
The Master of Applied Statistics is a rigorous program that requires regular application of the skills learned in calculus, linear algebra, and statistics. If it has been more than 10 years since you have taken these math courses (or more than five years if these skills are not utilized on a regular basis in the workplace), please contact the department prior to applying.
Prepare the materials below and upload when you apply online.
Complete the online graduate application and pay the nonrefundable application processing fee (payable online). As soon as you have completed the required information, please submit your application. Your application will not be reviewed until it is complete and all required materials have been received.
CSU's Graduate School offers several application fee waiver opportunities. Visit their website to determine if you are eligible for a waiver.
Request one official transcript of all collegiate work completed from all institutions attended. Transcripts from Colorado State University are not required. Transcripts must be received directly from the originating institution to be considered official.
Please Note: Students may be unconditionally admitted and registered in their first semester of courses with an unofficial transcript. Official transcripts must be submitted, prior to or during your first semester, before you can register for your second semester of graduate work. Failure to meet this condition will result in your dismissal from the Graduate School.
Electronic (preferred): Digital Transcripts must be submitted by the originating institution using a secure service such as parchment, eScrip-Safe, the National Student Clearinghouse, or e-Quals. Transcripts received via emails are considered unofficial. Use institution code 4075 for Colorado State University or gradadmissions@colostate.edu if the secure service requires an email address.
Mail (if necessary) Graduate Admissions Colorado State University – Office of Admissions 1062 Campus Delivery Fort Collins, CO 80523-1062
View your application status at any time to ensure your application checklist is complete or to check on updates.
Once your complete application, including supporting materials, is received, the department admission committee will review your application and notify you of their decision.
Proof of English language proficiency is required for applicants from countries or United States territories where there are official languages other than (or in addition to) English. This includes the U.S. territories of American Samoa, Guam, the Northern Mariana Islands, and Puerto Rico.