Statistical Considerations for Research Reproducibility: Strategies for Building Transparent Analytic Workflows

Background: Reproducibility, the ability for independent investigators to obtain consistent results using the same data and analytic procedures, is foundational to scientific integrity, yet remains a challenge across research settings. Common practices such as manual data cleaning, point-and-click analyses, and creating tables by manually copying and pasting values from output to table shells increase the likelihood of error, reduce transparency, and impede efficient collaboration. As data become more complex and expectations for reproducibility from journals, funders, and the scientific community grow, researchers need practical, accessible guidance on implementing reproducible workflows. Objectives: To provide actionable steps to improve the reproducibility of data management, statistical analyses, and reporting, and demonstrate reproducible workflows using both R and IBM SPSS Statistics. Methods: We outline five steps toward reproducibility: (1) project organization and file structure, (2) use of ReadME documentation, (3) clear traceability from raw to analytic data sets, (4) use of syntax for all data cleaning and management, and (5) reproducible generation of tables and reports. A synthetic data set is used to illustrate these principles in both R and SPSS, highlighting how fully syntax-based workflows in R and syntax-supported workflows in SPSS can move researchers toward greater transparency and efficiency. Results: Implementing reproducible workflows reduces error, saves time, and strengthens scientific rigor. Syntax-based approaches create a complete, defensible record of every analytic decision, supporting clearer team communication and easier project hand off. Even small changes, such as maintaining untouched raw data, standardizing folder structures, and documenting decisions in ReadMe files, substantially improve transparency. Across platforms, the guiding principle holds: anything that is done manually can be done with syntax, enabling faster, more accurate, and fully repeatable results. Discussion: Reproducibility is both an ethical and methodological imperative. Incremental improvements can reshape research culture, producing more trustworthy work. Integrating reproducibility into education, mentorship, and team science can help ensure that rigorous, transparent analytic practices become standard in research.

Authors

Publication Details

Journal
Nursing Research
Published
2026-08-18
DOI
https://doi.org/10.1097/nnr.0000000000000940
Primary Topic
Scientific Computing and Data Management
Type
article
Field-Weighted Citation Impact
0.00
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Statistical Considerations for Research Reproducibility: Strategies for Building Transparent Analytic Workflows

Grace Bosma, Sarah J. Schmiege, Dawn M. Aycock, Matthew J. Hayat et al.
Nursing Research
Scientific Computing and Data Management
article

Statistical Considerations for Research Reproducibility: Strategies for Building Transparent Analytic Workflows

Grace Bosma, Sarah J. Schmiege, Dawn M. Aycock, Matthew J. Hayat, Laura Grau, Zahra Ali
article en

Abstract

Background: Reproducibility, the ability for independent investigators to obtain consistent results using the same data and analytic procedures, is foundational to scientific integrity, yet remains a challenge across research settings. Common practices such as manual data cleaning, point-and-click analyses, and creating tables by manually copying and pasting values from output to table shells increase the likelihood of error, reduce transparency, and impede efficient collaboration. As data become more complex and expectations for reproducibility from journals, funders, and the scientific community grow, researchers need practical, accessible guidance on implementing reproducible workflows. Objectives: To provide actionable steps to improve the reproducibility of data management, statistical analyses, and reporting, and demonstrate reproducible workflows using both R and IBM SPSS Statistics. Methods: We outline five steps toward reproducibility: (1) project organization and file structure, (2) use of ReadME documentation, (3) clear traceability from raw to analytic data sets, (4) use of syntax for all data cleaning and management, and (5) reproducible generation of tables and reports. A synthetic data set is used to illustrate these principles in both R and SPSS, highlighting how fully syntax-based workflows in R and syntax-supported workflows in SPSS can move researchers toward greater transparency and efficiency. Results: Implementing reproducible workflows reduces error, saves time, and strengthens scientific rigor. Syntax-based approaches create a complete, defensible record of every analytic decision, supporting clearer team communication and easier project hand off. Even small changes, such as maintaining untouched raw data, standardizing folder structures, and documenting decisions in ReadMe files, substantially improve transparency. Across platforms, the guiding principle holds: anything that is done manually can be done with syntax, enabling faster, more accurate, and fully repeatable results. Discussion: Reproducibility is both an ethical and methodological imperative. Incremental improvements can reshape research culture, producing more trustworthy work. Integrating reproducibility into education, mentorship, and team science can help ensure that rigorous, transparent analytic practices become standard in research.

Nursing Research
Industry, innovation and infrastructure
Openalex Percentile: Top 3%
Scientific Computing and Data Management
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.