simulating order statistics
Simulation of some order statistics from uniform RVs by 2 different methods.
Simulation of some order statistics from uniform RVs by 2 different methods.
Exploring adding random variables in R.
Using 2 UNIF RVs to show that the points in that circle are not random (and a way to get random points).
Data350 Final Modeling Project using linear regression and ANOVA.
Collate Utah data to make visible the proportion of households in each Utah legislative district that make below what is required to rent a 2 bedroom apartment in their county.
Published in Aquatic Biosystems, 2013
Molecular Identification of Microbes Associated with the Brine Shrimp Artemia franciscana.
Recommended citation: Riddle MR, Baxter BK and Avery B; Molecular Identification of Microbes Associated with the Brine Shrimp Artemia franciscana. Aquatic Biosystems. 9:7 (8 March 2013) https://doi.org/10.1186/2046-9063-9-7
Published in Journal of Chemical Education, 2014
The Biology and Chemistry of Brewing: An Interdisciplinary Course.
Recommended citation: Hooker P, Deutschman W, and Avery B; The Biology and Chemistry of Brewing: An Interdisciplinary Course. J. Chem. Educ., 2014, 91(3), pp 336-339. (cover) http://pubs.acs.org/doi/abs/10.1021/ed400523m
Published in Journal of Computing Sciences in Colleges, 2015
CS Principles with POGIL Activities as a Learning Community.
Recommended citation: Hu H, Avery BJ. CS Principles with POGIL Activities as a Learning Community. Journal of Computing Sciences in Colleges, 2015, 31(2), pp 79-86. http://dl.acm.org/citation.cfm?id=2831444
Published in American Journal of Hematology, 2016
Retrospective study of rFVIIa, 4-factor PCC, and a rFVIIa and 3-factor PCC combination in improving bleeding outcomes in the warfarin and non-warfarin patient.
Recommended citation: DeLoughery E, Avery B, DeLoughery T. Retrospective study of rFVIIa, 4-factor PCC, and a rFVIIa and 3-factor PCC combination in improving bleeding outcomes in the warfarin and non-warfarin patient. Am J Hematol, 91(7):705-708, July 2016. http://dx.doi.org/10.1002/ajh.24384
Published:
As the data that we collect dramatically increases in both quantity and complexity, all college graduates will need more quantitative and computational skills to be productive and successful members of society. I will present my experience using the open source Jupyter Notebook system as an undergraduate instructor and mentor. My colleagues and I have developed inquiry based, active learning materials in Jupyter Notebooks to teach coding and quantitative skills to undergraduate students at several different levels. Our materials address basic calculation and graphing skills, reproducible research, and include a semester long scientific computing course using Python. Jupyter Notebooks have several advantages for teaching and learning over traditional coding in the shell or an IDE. The system is relatively easy to install, combines text, code, and output all in one place that is easily exportable. It also makes it easy to guide students through solving problems with code and to see students’ thought process as they work through everything from simple exercises to complex data analysis projects. We see Jupyter Notebooks as an easily accessible tool to get students at various levels engaged in doing data science.
More information on csv,conf
Published:
As the data that we collect dramatically increases in both quantity and complexity, all college graduates will need more quantitative and computational skills to be productive and successful members of society. Neuroscience students are no exception. Instructors are often looking for efficient and exciting (or at least non-off-putting) ways to introduce undergraduates early in their careers to the powerful data analysis tools that they will learn and use later, such as the programming languages, R and Python, without overwhelming introductory students. My question was: what is the most accessible and effective framework for teaching quantitative and computational skills in introductory neuroscience and genetics classes that will meet our learning goals and prepare students for continued development in data analysis and advanced courses? I have developed inquiry based, active learning materials in the Jupyter Notebook system to teach coding and quantitative skills to undergraduate students at several different levels. I will present our materials and discuss our experience using this open source system as an effective and accessible tool to teach quantitative and computational skills in neuroscience classes. My materials address basic calculation and graphing skills, reproducible data analysis, and basic statistics using R or Python. I will discuss the advantages of Jupyter Notebooks for teaching and learning over using more basic tools such as Excel or systems with a relatively steep learning curve such as Rstudio. The Jupyter Notebook system is relatively easy to install or use in the cloud, and combines text, code, and output all in one place that is easily exportable to HTML and PDF. It is also easy to guide students through solving scaffolded problems with code that they can adapt and modify, and to record and evaluate students’ thought processes as they work through everything from simple exercises to complex data analysis projects. I see Jupyter Notebooks as an easily accessible tool to get students at various levels engaged in doing data science related to neuroscience.
More information on CSAIL
Published:
As the data that we collect dramatically increases in both quantity and complexity, all college graduates will need more quantitative and computational skills to be productive and successful members of society. Ecology students are no exception. Instructors are often looking for efficient and exciting (or at least non-off-putting) ways to introduce undergraduates early in their careers to the powerful data analysis tools that they will learn and use later, such as the statistical programming language, R, without overwhelming introductory students. Our question was: what is the most accessible and effective framework for teaching quantitative and computational skills in introductory ecology classes that will meet our learning goals and prepare students for continued development in statistics and advanced courses?
Co-presented with Christy Clay, Ph.D., also of Westminster College
Published:
Teaching Undergrads Research Reproducibility, Grand Rounds: Research Reproducibility. University of Utah, Eccles Health Sciences Library. October 2017.
Published:
Panel Discussion: What Universities Do (and Don’t Do) to Influence (or not) Research Reproducibility. Conference: Building Research Integrity Through Reproducibility. June 2018. Moderated by Victoria Stodden.
undergraduate, Westminster College, 2017
Scientific computing in Python using Jupyter Notebooks for physics, chemistry, biology, neuroscience, and environmental science students.
Link to Github repo for course
undergraduate, Westminster College, 2017
Advanced undergraduate course on the biology of stem cells, development, and the applications of stem cells.
undergraduate, Westminster College, 2018
Second year biology (and neuro and other science) majors principles of genetics class.
undergraduate, Westminster College, 2018
An advanced genetics class focusing on the methods used in human population and family studies at the genome wide level and how they are applied to complex human behavioral phenotypes.
undergraduate, Westminster College, 2018
This course is an exploration of the role of genetic inheritance on human behavior. We focus on modern genetic analysis and the molecular techniques used to study both complex normal human behaviors and diseases. Taught as a learning community in conjunction with Probability, Risk, and Reward (Bill Bynum).
undergraduate, Westminster College, 2018
Neuroscience at the cellular level including the specific cell biology and development of neurons, electrophysiology, synapses, wiring a nervous system, sensory receptor systems, and learning and memory at the cellular level.