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The importance of standardized data in clinical research

The boring but very important field that

Alexandra GereabyAlexandra Gerea
August 19, 2024 - Updated on August 22, 2024
in Science
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Edited and reviewed by Mihai Andrei
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Clinical studies are the cornerstone of modern medical science. The insights they provide are crucial to the safety and effectiveness of new treatments, ensuring the best possible patient outcome through rigorous scientific evaluation.

In general, clinical studies generate reliable data that guide medical practice and regulatory decisions by systematically investigating the safety and efficacy of drugs, therapies, and medical devices in human subjects. They help identify potential risks and benefits and advance our understanding of diseases and their treatments.

Simply put, without clinical studies, we wouldn’t have new drugs, vaccines, or medical improvements. We wouldn’t even have modern medicine.

However, these trials generate a lot of data, and it’s not always easy to manage or interpret it. This is where the Study Data Tabulation Model (SDTM) and SDTM mapping come in.

A standard for medical research

There are thousands of medical research institutes around the world; many of them have multiple research teams that are working on clinical trials. Oftentimes, they do soin different ways. In order to generate a common knowledge system, we need a common data format.

SDTM stands for Study Data Tabulation Model, a standard established by the Clinical Data Interchange Standards Consortium (CDISC). It’s essentially a framework for organizing and formatting data collected in clinical trials to streamline data submission to regulatory authorities such as the Food and Drug Administration (FDA) and the European Medicines Agency (EMA). All these organizations from different parts of the world, with different individual standards, work together in a joint framework; in a way, SDTM is a way for all these different groups to “speak the same language”. That’s the primary goal of SDTM: to standardize the structure and content of clinical trial data, facilitating its review, analysis, and exchange.

SDTM encompasses various domains representing different aspects of a clinical trial, such as demographics, adverse events, laboratory results, and treatment administration. Each domain is organized into datasets that follow predefined formats, ensuring consistency across studies.

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Understanding SDTM Mapping

To “translate” the data to a common framework, it first needs to be mapped.

SDTM mapping is the process of converting raw clinical trial data into the SDTM format. This involves translating data from diverse sources, such as case report forms (CRFs), electronic health records (EHRs), and laboratory systems, into standardized SDTM datasets. Effective SDTM mapping techniques require a deep understanding of both the source data and the SDTM standards to ensure accurate and meaningful transformation.

Think of it this way: SDTM mapping is the boring but very important part that keeps clinical research accessible and understandable to all scientists. Mapping raw data to SDTM involves several steps, including:

  1. Data Extraction: Identifying and extracting relevant data from various sources.
  2. Data Cleaning: Addressing any inconsistencies, errors, or missing values in the data.
  3. Data Transformation: Converting data into the SDTM format, which may involve renaming variables, creating new variables, and restructuring datasets.
  4. Data Validation: Ensuring the mapped data meets SDTM standards and is free of errors.
  5. Data Documentation: Documenting the mapping process and any decisions made during the transformation.

Why SDTM and SDTM Mapping Matter

One of the most significant benefits of SDTM mapping is the streamlined submission process to regulatory authorities; simply speaking, it makes it easy for regulators to assess research.

Regulatory bodies, such as the FDA, require clinical trial data to be submitted in a standardized format. SDTM provides this standardization, ensuring that data submissions are consistent and easily interpretable. This reduces the time and effort required for regulatory review, expediting the approval process for new drugs and treatments. Remember, it takes between 10 and 15 years on average to develop one new medicine from initial discovery through regulatory approval. Without SDTM, this arduous process might have taken even longer.

SDTM mapping improves data quality and integrity by enforcing standardized formats and structures. By adhering to SDTM guidelines, clinical researchers ensure that their data is complete, accurate, and free from inconsistencies. This is crucial for making reliable conclusions about the safety and efficacy of new treatments.

Moreover, the standardization provided by SDTM allows for better data integration across different studies and institutions. Researchers can compare and combine data from multiple sources, leading to more robust and comprehensive analyses.

Improving reporting and patient safety

The standardized structure of SDTM datasets also simplifies data analysis and reporting. Researchers can use predefined SDTM domains (think: shortcuts) to quickly locate and analyze specific types of data. This is particularly beneficial when conducting meta-analyses or pooling data from multiple studies — and it used to take much longer than it does now, with SDTM.

Additionally, SDTM mapping allows for automated data processing and analysis. With data in a consistent format, researchers can develop automated scripts and tools to analyze and report on clinical trial data, reducing the potential for human error and increasing efficiency.

Accurate and standardized data is essential for monitoring patient safety during clinical trials. SDTM mapping ensures that adverse events, laboratory results, and other critical data are consistently captured and reported. This enables timely identification of safety concerns and appropriate action to protect study participants.

In the event of a safety issue, having standardized data facilitates quick and accurate communication with regulatory authorities and other stakeholders.

Supporting Transparency and Reproducibility

Transparency and reproducibility are fundamental principles of scientific research. SDTM mapping supports these principles by providing a clear and consistent framework for data organization and reporting. Researchers can easily share their data and methodologies with others, facilitating independent verification and replication of study findings.

Standardized data also enhances collaboration between research institutions, as data from different studies can be easily integrated and compared. This fosters a collaborative research environment and accelerates the discovery of new treatments and therapies.

Difficult to accomplish sometimes

Transforming raw data into standardized SDTM datasets requires specialized knowledge of both the source data and SDTM standards — and experts can be hard to come across. The process also requires lots of time, and clinical trials work with deadlines and a lot of time pressure.

SDTM mapping requires significant resources, including time, personnel, and technology. Smaller research organizations or those with limited budgets may find it challenging to allocate the necessary resources for effective SDTM mapping. However, the long-term benefits of standardized data often justify the initial investment — even though some research groups can find it difficult to ensure the necessary resources for this.

Ultimately, through these standards, researchers and pharmaceutical companies can ensure that their data stands up to the highest levels of scrutiny, paving the way for quicker regulatory approvals and more reliable scientific discoveries. As technology continues to evolve and global collaborations become more common, the adoption of SDTM will not only streamline the clinical trial process but also enhance patient safety and accelerate the delivery of groundbreaking treatments.

The future of medical research is bright, and with SDTM, we can all speak the same language.

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Alexandra Gerea

Alexandra Gerea

Alexandra is a naturalist who is firmly in love with our planet and the environment. When she's not writing about climate or animal rights, you can usually find her doing field research or reading the latest nutritional studies.

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