Challenges in Processing Non-Structured Data
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Non-structured data is gradually assuming a critical role in analytics across the healthcare industry, encompassing an assortment of forms such as textual (notes, narratives) as well as imagistic (CT scans, MRI, X-ray, etc.) and sensory (wearable health monitors). While structured data is well suited for today’s data storing formats, non-structured data is cluttered and inconsistent in format, form and nature, and as such difficult to store, process, and analyze.
Nevertheless, the information that may be obtained from this data can greatly improve patient care, diagnosis and treatment. This article defines non-structured data and the challenges it poses to health care, and how these issues can be addressed.
Textual data in healthcare, such as clinical notes and patient narratives, is often rich in information but difficult to process due to its unstructured nature. The texts in question feature a variety of formats, medical terminology, and abbreviations. A key contributor to this complexity is handwriting, which varies significantly between individuals, lacks standardization, and can be difficult to digitize or interpret accurately.
While other forms of digitized textual data tend to follow specific protocols and rules, handwritten notes are less structured, making automated processing particularly challenging. Extracting meaningful insights from such data requires sophisticated techniques to accurately interpret context, sentiment, and specific medical terminology.
Medical imaging data, including MRI, CT scans, and X-rays, presents a unique set of challenges. Analyzing these images requires the use of advanced algorithms capable of detecting minute details and anomalies. The sheer size of imaging data demands significant computational resources for storage, processing, and analysis. Moreover, ensuring accuracy in image interpretation is critical, as it directly impacts patient diagnosis and treatment plans. The use of AI and machine learning (ML) technologies is becoming more prevalent in the analysis of medical images, allowing for more efficient detection of abnormalities and providing valuable support in decision-making processes. These AI/ML models can learn from vast datasets to improve diagnostic accuracy and reduce human error.
Information coming directly from sensors of wearables, and other health monitors, for example, can be real-time and fluctuating. These variations can be traced from variations in device calibration, activity levels of the patient, and environmental factors. Also, the amount of constantly growing and changing sensor data in large-scale systems evokes a problem in processing it for millisecond-latency analytics. To monitor critical health parameters accurately and reliably, we need robust infrastructure and analytical frameworks. We also need real-time analytics and integration with other healthcare data to derive actionable insights.
To effectively process unstructured data in healthcare, a combination of analytics techniques, data integration methods, and scalable infrastructure solutions are required. These strategies help turn raw data into useful insights, which improves patient care and makes operations more efficient.
Natural Language Processing (NLP) is essential for extracting valuable information from unstructured textual data such as clinical notes, patient narratives, and medical records. NLP techniques can identify and interpret medical terminology, extract relevant information, and convert it into structured data for further analysis.
Artificial Intelligence (AI) and Machine Learning (ML) are revolutionizing the analysis of medical imaging and sensor data. These technologies facilitate the identification of patterns, diagnosis of conditions, and prediction of health outcomes with greater accuracy and efficiency.
It is essential to integrate diverse data sources, including textual, imaging, and sensor data, to gain comprehensive insights into patient health. Integrated data provides healthcare providers with a holistic view of patient health, enabling more accurate diagnosis and treatment planning.
It is essential to have scalable infrastructure in place to effectively manage the large volumes of unstructured data generated in the healthcare industry. Cloud-based solutions and big data platforms provide the flexibility and capacity needed for efficient data storage and processing.
To handle the overwhelming volume of non-structured data, three major changes have to be made for organizations that are operating in healthcare; these are the integration of complex analytics, proper data integration, and integration of scalable technologies. When employed, these strategies can enable healthcare organizations to turn invaluable data into knowledge and ultimately into value added as far as patient care and business optimality is concerned.
It is possible to enroll strategies through a custom healthcare software development company to ensure the implementation of these strategies is successful. Through working with a healthcare software development services company, healthcare organizations benefit from the expert knowledge of those involved to create solutions for better patient and organizational outcomes.
Therefore, the management of the issues of non-structured data in healthcare is vital for the improved potential of the concept. Through leveraging analytics, at the same time handling more than one type of data, as well as integration of relevant infrastructure, hospital and other healthcare companies can reach considerable progress.
Marian Faryna is the Big Data Competence Lead at Sigma Software, a founding member of DAMA Ukraine Kyiv, and a lecturer at UCU. With a background as a software architect, Marian is passionate about data management, innovative architecture, and advancing big data solutions.
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