Researchers Identify Healthcare Data Defects

Researchers at the University of Maryland, Baltimore County (UMBC) have developed a method to investigate the quality of healthcare data using a systematic approach, which is based on creating a taxonomy for data defects thorough literature review and examination of data. Using that taxonomy, the researchers developed software that automatically detects data defects effectively and efficiently.

The research is published in the Journal of the American Medical Informatics Association (JAMIA), and is led by Günes Koru, FAMIA, professor of information systems, and Yili Zhang, a former graduate student in Koru's lab who is now a postdoctoral fellow at Northwestern University. The paper stresses that the prevalence of defects in some of the existing healthcare data can be quite high. This must be addressed to better leverage the data to improve the quality of care, reduce costs, and achieve better healthcare outcomes. The team collaborated with an anonymous healthcare organization using real healthcare datasets.

Though many researchers today are involved in the analysis of healthcare data and are invested in its importance, there is very little research being done on the quality of the data being analyzed. Ultimately, this creates a far-reaching problem because important findings from the data may be less meaningful than assumed unless significant effort and money can be invested to deal with data quality problems with ad-hoc methods. For instance, much of the data that Koru's team analyzed contained errors of duplication, mismatched formatting and incorrect syntax.

Identifying these defects in healthcare data is deeply important when it comes to healthcare facilities providing essential services. Koru explains how healthcare facilities use the data collected. Healthcare organizations must "improve upon their services based on that data, and collect more data. If we can keep this cycle going, we can actually learn and improve more quickly, which is the main idea behind the concept of Learning Health Systems, and doing so is all the more important in the COVID-19 era," he says.

In the last decade, healthcare providers in the U.S. made a large leap from keeping patient records on paper to containing all patient information in computerized databases. This jump is significant because of the opportunity it provides for analysis, but researchers are still trying to learn how to effectively leverage the data as an asset.

Koru positions his team's research on data quality as being between the fields that are working to leverage data and the fields that are working to generate it. If the data itself--the bridge that connects the two fields - contains many inconsistencies and problems, then the relevant information cannot be used to provide better outcomes for patients and facilities.

In the future, Koru will continue to work with the partner facility's healthcare professionals to build a path forward. He will collaborate further to improve the quality of data and sustain an operation that bases much of its success on the data that it can gather from health services. His team will work with healthcare administration professionals when the software tools developed through this research are adopted in organizational settings to ensure the usability and usefulness of the tools.

"The taxonomy will help data stewards to identify, understand, and manage potential data quality problems in their future work," says Zhang.

Now more than ever, healthcare facilities are relying on strong data to support patients and the healthcare field as a whole. Koru and Zhang have found that collaborations between data researchers and healthcare organizations can generate effective solutions to the problem of data quality improvement.

Yili Zhang, Güneş Koru.
Understanding and detecting defects in healthcare administration data: Toward higher data quality to better support healthcare operations and decisions.
Journal of the American Medical Informatics Association, March 2020. doi: 10.1093/jamia/ocz201

Most Popular Now

AI-Powered CRISPR could Lead to Faster G…

Stanford Medicine researchers have developed an artificial intelligence (AI) tool to help scientists better plan gene-editing experiments. The technology, CRISPR-GPT, acts as a gene-editing “copilot” supported by AI to help...

Groundbreaking AI Aims to Speed Lifesavi…

To solve a problem, we have to see it clearly. Whether it’s an infection by a novel virus or memory-stealing plaques forming in the brains of Alzheimer’s patients, visualizing disease processes...

AI Spots Hidden Signs of Depression in S…

Depression is one of the most common mental health challenges, but its early signs are often overlooked. It is often linked to reduced facial expressivity. However, whether mild depression or...

ChatGPT 4o Therapeutic Chatbot 'Ama…

One of the first randomized controlled trials assessing the effectiveness of a large language model (LLM) chatbot 'Amanda' for relationship support shows that a single session of chatbot therapy...

AI Tools Help Predict Severe Asthma Risk…

Mayo Clinic researchers have developed artificial intelligence (AI) tools that help identify which children with asthma face the highest risk of serious asthma exacerbation and acute respiratory infections. The study...

AI Model Forecasts Disease Risk Decades …

Imagine a future where your medical history could help predict what health conditions you might face in the next two decades. Researchers have developed a generative AI model that uses...

AI Model Indicates Four out of Ten Breas…

A project at Lund University in Sweden has trained an AI model to identify breast cancer patients who could be spared from axillary surgery. The model analyses previously unutilised information...

AI Distinguishes Glioblastoma from Look-…

A Harvard Medical School–led research team has developed an AI tool that can reliably tell apart two look-alike cancers found in the brain but with different origins, behaviors, and treatments. The...

Smart Device Uses AI and Bioelectronics …

As a wound heals, it goes through several stages: clotting to stop bleeding, immune system response, scabbing, and scarring. A wearable device called "a-Heal," designed by engineers at the University...

Overcoming the AI Applicability Crisis a…

Opinion Article by Harry Lykostratis, Chief Executive, Open Medical. The government’s 10 Year Health Plan makes a lot of the potential of AI-software to support clinical decision making, improve productivity, and...

Dartford and Gravesham Implements Clinis…

Dartford and Gravesham NHS Trust has taken a significant step towards a more digital future by rolling out electronic test ordering using Clinisys ICE. The trust deployed the order communications...