Loader

Unlocking the Power of Posit in Pharma : Use Cases and Architecture Best Practices

author image

Hariram Jayaram, Scientific Application Consultant | Jeya Priya Senthilkumaran, Senior Scientific DevOps Analyst   |   5mins

Introduction

The pharmaceutical industry is undergoing a data revolution. From early drug discovery to clinical trial submissions, data science is playing a pivotal role in accelerating research, improving decision-making, and meeting regulatory requirements.

At the heart of this transformation lies Posit (formerly RStudio), a powerful platform that enables open-source data science workflows with R and Python. In regulated environments like pharma, where reproducibility, compliance and scalability are essential, Posit offers a reliable and secure foundation for end-to-end analytics.

In this blog, we explore the key use cases of Posit in pharmaceutical research and walk through architectural best practices to help you get the most out of your investment.

The Posit Ecosystem – At a Glance

Posit provides an integrated suite of tools designed to cover the full data science lifecycle:

  • Posit Workbench: A central development environment supporting R and Python, with integrations for multiple IDEs (Jupyter/VS Code), designed for collaboration and scalability.
  • Posit Connect: A publishing platform that allows researchers to securely share reports, dashboards, APIs and models (multi-framework supported, from Shiny to Gradio/Bokeh).
  • Posit Package Manager: Enables governance by controlling package access, managing internal repositories, and freezing versions through repo snapshots for reproducibility.

Together, these tools enable scientific teams to go from data to decision—securely, reproducibly, and collaboratively.

Key Use Cases of Posit in Pharma

a. Clinical trial data analysis

Pharmaceutical companies can rely on Posit for preparing CDISC-compliant datasets such as SDTM and ADaM, and for generating TLFs (Tables, Listings, and Figures) required in clinical study reports. Analysts use R Markdown or Quarto to integrate code, data, and interpretation in a single document—ensuring transparency and traceability.

b. Drug discovery and bioinformatics

R and Python packages for genomics, transcriptomics, and cheminformatics (e.g., Bioconductor, tidyverse, scikit-learn) are widely used for target identification and lead optimization. Posit Workbench supports these workflows with scalable compute and secure storage integrations.

c. Interactive dashboards for clinical monitoring

Using Shiny or Plotly Dash, teams can build web-based dashboards to monitor trial metrics, track patient recruitment, visualize adverse events, and more. These dashboards can be securely published on Posit Connect for real-time collaboration.

d. Risk-based quality assessment

R packages like riskmetric help assess the risk of open-source R packages. Pharma companies are extending these ideas to internal packages and tools to ensure validation readiness.

e. Integrations with ELN, SDMS, and LIMS

Posit integrates well with existing scientific data systems, enabling analysis pipelines. Reports and summaries can be auto-published to internal portals or email lists via Connect.

Architecting Posit for Pharma: Best Practices

To get the most out of Posit, the platform must be thoughtfully architected for performance, compliance, and usability.

a. Scalable and flexible infrastructure

  • Deploy Posit on cloud platforms like AWS, Azure, or GCP—or in hybrid setups.
  • Use scalable clusters (e.g., Kubernetes or AWS ParallelCluster) for heavy computation.
  • Integrate with file systems like Lustre, EFS, or object stores (e.g., S3).

b. Security and compliance

  • Integrate with enterprise authentication (SSO via Azure AD, Okta).
  • Enable encrypted connections, audit logging, and workspace isolation.
  • Ensure compliance with GxP, 21 CFR Part 11, and internal SOPs.
  • Use Infrastructure Qualification (IQ), Operational Qualification (OQ), and Performance Qualification (PQ) templates.

c. Package governance

  • Use Posit Package Manager to mirror and curate CRAN/PyPI packages.
  • Take monthly snapshots and enforce reproducibility across projects.
  • Create validated package sets for different stages of the research lifecycle.

d. Multi-tenant setup and access controls

  • Organize users by therapeutic areas or project teams.
  • Use project folders, ACLs, and scoped publishing in Connect.
  • Enable resource isolation between business groups.

e. CI/CD and automation

  • Integrate Git-based workflows for version control.
  • Automate the deployment of Shiny apps, reports, and APIs using the Connect publishing API.
  • Parameterize reports for dynamic generation across multiple studies or regions.

Reference Architecture

While Posit Suite provides a one-stop data analytics solution, building a well-oiled platform with the necessary integrations and scalability is the key to unlocking its full potential.

The following must be considered when designing such a platform:

  • 1. Compute power and scalability.
  • 2. Storage integrations.
  • 3. Data source integrations.
  • 4. Different IDE integrations.

Decisions around these considerations should be made based on the business use case.

Reference-Architecture

The ideal enterprise-scale Posit platform uses essential components of a reference architecture. The Workbench serves as the entry point for developers and can be powered by various compute environments such as Kubernetes (EKS), HPC (Slurm cluster), or a single server. Based on business case analysis, one or more compute environments should be selected. It is recommended to maintain flexibility by integrating different IDEs, such as Jupyter, VS Code, Positron or RStudio IDE, into the Workbench to support diverse user needs. Additionally, the Workbench can be integrated with Databricks clusters for parallel data analysis using Spark (optional).

Content created in the Workbench (e.g., Shiny apps, Streamlit apps, APIs, Markdown Reports, Quarto Reports) is intended to be hosted on the Posit Connect platform. While direct deployment is straightforward, a Git-based deployment with unit testing is recommended for controlled releases. Both Workbench and Connect can connect to a wide variety of data sources (e.g., Redshift, Oracle, Postgres, MongoDB) to support robust analysis.

Multiple versions of R and Python can be configured in both Workbench and Connect, giving developers flexibility when migrating code from local environments. However, it's essential to manage the risks of open-source software by controlling the repositories and packages used. This is achieved through careful configuration of the Package Manager for both R and Python packages. While it’s important to configure the platform for flexibility across use cases, performance is equally critical. Hosting the platform in the cloud offers scalability and processing power for enterprise-wide analytics. Choosing the right services, compute resources, network configurations, and storage options is vital to creating a robust data analytics architecture.

Embracing R and Python Together

Modern pharmaceutical analytics is no longer limited to a single language. Posit supports both R and Python seamlessly, allowing teams to leverage the best tools for each task.

  • Analysts can use reticulate to combine R and Python in a single notebook.
  • Python support in Posit Workbench includes JupyterLab, VS Code, and terminal-based workflows.
  • Machine learning models built in scikit-learn or TensorFlow can be deployed and monitored alongside R-based models.

This multi-language capability empowers diverse teams to collaborate without barriers.

Conclusion

Posit is more than an IDE—it's a complete platform for modern, reproducible, and compliant data science in pharma. From clinical trial analytics to bioinformatics, it provides the tools to drive insights while meeting the demands of a regulated environment.

By thoughtfully architecting your Posit environment with the right infrastructure, governance, and automation, you can empower your scientific teams and accelerate drug development timelines.