Statistical Programming

Neoclinus boasts industry-leading expertise in Biostatistics and Statistical Programming. Our dedicated team of programmers has extensive SAS® programming experience and in-depth knowledge of clinical subject matter, enabling the competent and timely completion of tasks. Given the life science industry’s demand for detailed reporting, summarization, high-quality outputs, and complex statistical analyses, SAS® is the ideal programming method to ensure FDA compliance.

Clinical Statistical Programming is a critical function in clinical research that involves the application of statistical methods to analyze data from clinical trials. The goal is to ensure that the analysis is accurate, reliable, and compliant with regulatory standards, which is essential for the successful approval of new therapies.

 

Key Activities in Clinical Statistical Programming

  1. Protocol Review:
    • Evaluating study protocols to understand the statistical requirements and endpoints.
    • Providing input on statistical analysis plans (SAP).
  2. Programming Development:
    • Developing and validating SAS programs to analyze clinical trial data.
    • Creating datasets that comply with CDISC standards, such as SDTM (Study Data Tabulation Model) and ADaM (Analysis Data Model).
  3. Data Integration:
    • Merging data from various sources and studies.
    • Ensuring data consistency and integrity across different datasets.
  4. Statistical Analysis:
    • Performing descriptive and inferential statistical analyses.
    • Generating tables, listings, and figures (TLFs) for clinical study reports (CSRs).
  5. Quality Control:
    • Conducting rigorous quality control checks to ensure the accuracy and reproducibility of results.
    • Implementing best practices and standard operating procedures (SOPs) for programming.
  6. Regulatory Submissions:
    • Preparing datasets and documentation for submission to regulatory authorities like the FDA and EMA.
    • Ensuring compliance with regulatory guidelines and standards.
  7. Automation and Efficiency:
    • Utilizing macros and automated processes to enhance programming efficiency.
    • Streamlining workflows to reduce manual efforts and minimize errors.

Tools and Technologies

  • SAS: The primary programming language used for statistical analysis in clinical trials.
  • R: An additional tool often used for advanced statistical analyses and visualizations.
  • CDISC Standards: Ensuring compliance with industry standards for data formatting and reporting.
  • Data Management Systems: Integrating with data management systems for efficient data handling.

Expertise and Experience

  • Therapeutic Area Knowledge: Expertise in various therapeutic areas to provide tailored statistical analyses.
  • Regulatory Knowledge: Deep understanding of regulatory requirements and guidelines.
  • Collaboration: Working closely with biostatisticians, data managers, and clinical teams to ensure comprehensive data analysis.

Quality Assurance

  • Validation: Rigorous validation of all programs and outputs to ensure accuracy.
  • Documentation: Comprehensive documentation of all programming activities and methodologies.
  • Training: Continuous training for the programming team to stay updated with the latest industry standards and technologies.

Benefits of Effective Clinical Statistical Programming

  • Accuracy and Reliability: Ensures high-quality, reliable data analysis.
  • Regulatory Compliance: Facilitates smooth regulatory submissions and approvals.
  • Efficiency: Reduces time and costs through automation and streamlined processes.
  • Informed Decision-Making: Provides robust data analysis to support clinical and regulatory decisions.

Conclusion

Clinical Statistical Programming is a vital component of clinical research, ensuring that data is accurately analyzed and reported. By leveraging advanced programming techniques and adhering to regulatory standards, we support the development of new therapies that improve patient outcomes and advance medical science.