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Stream/Area:
-
Subject:
-
Paper ID:
IJSREM63718
Volume:
10 |
5 |
May 2026
Pages:
1-6
Publication Frequency:
Monthly (12 issues per year)
License:International Journal of Scientific Research in Engineering and Management follows the Creative Commons Attribution 4.0 (CC BY 4.0) License, allowing free use and distribution with proper attribution.
MASTER OF COMPUTER APPLICATION
BAPUJI INSTITUTE OF ENGINEERING AND TECHNOLOGY
MASTER OF COMPUTER APPLICATION
BAPUJI INSTITUTE OF ENGINEERING AND TECHNOLOGY
Nowadays, the healthcare industry finds itself on the crossroads because of problems like rising costs, prevalence of chronic disease cases, and inefficiency as a result of a "break/fix" mentality. The latter is caused by the focus on treating symptoms rather than being preventative, as well as having more attention paid to emergencies rather than healthcare, which makes medical practices ineffective and expensive. The trend of moving towards smart healthcare through Big Data analytics and use of the Internet of Things technology is gaining traction. Predictive analytics applies huge amounts of heterogeneous data like electronic health records, medical imaging data, readings gathered by sensors in wearable devices, genomics, and others to diagnose diseases early, find patients at risk, and develop personalized medicine. In this context, the use of big data analytics will be a critical aspect in achieving predictive analytics of intelligent healthcare, which will be examined extensively due to its implications in reality for healthcare delivery systems and sustainable healthcare systems within today’s world. Semi-structured Data Sources: High-resolution imaging (from MRIs and CT Scans) with metadata requiring special handling. The Unstructured Flood: Physician qualitative descriptions, high-density genome sequences, telemetry from Internet of Medical Things (IoMT) sensors (e.g., bed-side monitor, wearables). Architectural Design and Strategic Infrastructure This architectural design will be based on a High Velocity Distributed Computing System, specifically designed to break through the limitations of throughput that are associated with the traditional relational model. Memory-based Processing Power The combination of the Hadoop environment with the memory-based processing ability of Apache Spark will allow for the ingestion of.
KEYWORDS
Despite the heroism shown in healthcare practices, the reactive healthcare model is bound by the incapability of anticipating health risks. “Big Data for Smart Healthcare Predictive Analytics” is a project that offers a detailed guide to the transformation process. By architecting a unified platform capable of breaking down data silos, processing the full spectrum of health data at scale, and applying the power of predictive analytics, we have demonstrated a viable pathway to a more proactive, efficient, and personalized form of healthcare. Navigating the Future of Intelligent Healthcare Proposed Unified Big Data Platform for Predictive Analytics in Healthcare analytics stands in stark contrast to a "data-rich, insight-poor" reality of legacy clinical systems by creating a decision breakpoint. The system builds a Holistic 360-Degree Clinical View by dismantling technical and bureaucratic silos that have conventionally fragmented the patient narrative. This is not an incremental update; it is a foundational reconfiguration of how medical knowledge is synthesized and deployed. · The Foresight Imperative The combination of specialized NLP pipes and RTSP (from the Spark/Kafka stack) essentially “activates” that latent 80% of clinical data that was until now not actionable at all. In highlighting predictive clues about sepsis events, readmissions, and failed deteriorations, it gives the treating physician the advantage of time—before a physiologic abnormality meets a clinical catastrophe. · Systemic Sustainability and Clinical Legacy Beyond the immediate clinical benefits, the platform addresses the Fiscal Sustainability of the healthcare industry. By minimizing the prevalence of preventable complications and optimizing resource allocation through Algorithmic Staffing, the project offers a viable pathway to managing the dual pressures of rising costs and an aging population.
1. JD Gates, S. Shafqat, S. Kishwer, R. U. Rasool, J. Qadir, T. Amjad1 Foundational Architectures and Global Overviews 2. Ahmad, H. F. (2024). Big Data Analytics for Predictive Insights in Healthcare. ResearchGate. 3. Contribution: Provided the primary framework for 2024-standard predictive modeling in high-velocity clinical environments. 4. Sun, J. (2012). Big Data Analytics for Healthcare: Applications and Challenges. ACM Digital Library. 5. Contribution: A foundational text that first identified the "Data Silo" problem and the potential for distributed computing in medicine. 6. Belle, A., et al. (2015). Big Data Analytics in Healthcare. PubMed. 7. Contribution: Essential for understanding the early integration of physiological signal processing with large-scale data stacks. 8. 8.2 Clinical Outcomes and Case Studies. 9. INJMR (2024). Predictive Analytics in Healthcare: Enhancing Patient Outcomes. 10. Contribution: Validated the correlation between proactive data intervention and the reduction of 30-day readmission rates.
Publication Date
5/21/2026
Peer Review Type
Double-Blind Peer Review
Review Rounds: 2
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The authors declare no conflict of interest related to this research work.
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