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Optimizing patient care with big data analytics and machine learning algorithms

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19 giu 2025
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Figure 1:

Data-driven insights: transforming healthcare through ML. ML, machine learning.
Data-driven insights: transforming healthcare through ML. ML, machine learning.

Figure 2:

Optimizing patient care with big data analytics and ML. ML, machine learning.
Optimizing patient care with big data analytics and ML. ML, machine learning.

Figure 3:

Preprocessing steps for AI-driven healthcare data.
Preprocessing steps for AI-driven healthcare data.

Figure 4:

Proposed system.
Proposed system.

Figure 5:

Disease prediction in January.
Disease prediction in January.

Figure 6:

Disease prediction in February.
Disease prediction in February.

Figure 7:

Disease prediction in March.
Disease prediction in March.

Figure 8:

Disease prediction in April.
Disease prediction in April.

Figure 9:

Operational metrics.
Operational metrics.

Figure 10:

Healthcare model performance metrics.
Healthcare model performance metrics.

Comparative study of ML and big data in healthcare

S.No. Author(s) Title Focus area Key technologies Dataset sources Key findings Challenges and limitations
1 Current study Disease Prediction, Treatment Personalization, and Operational Efficiency in Healthcare using ML & Big Data Improving disease prognosis, optimizing treatments, and enhancing hospital efficiency GNNs, RL, FL, XAI EHRs, Medical Imaging, Wearable Devices - 90% accuracy in disease prediction - Data integration complexity
- 25% boost in patient adherence - High computational requirements
- 30% operational efficiency improvement - Implementation of privacy safeguards at scale

2 Ratnaprabha Ravindra Borhade AI-Enhanced Predictive Analytics for Proactive Healthcare Management Proactive healthcare management ML algorithms Patient health records, operational data Improved patient care and operational efficiency through predictive analytics Data privacy concerns, integration with existing systems

3 John M. Gates, Yulianti Yulianti, Greian April Pangilinan Big Data Analytics for Predictive Insights in Healthcare Predictive insights in healthcare Big data analytics EHRs, medical imaging data Enhanced predictive insights leading to better patient outcomes Data quality issues, computational resource requirements

4 Solomon Kavuta, Mr Joel Mulepa Machine Learning in Health Analytics and Patient Monitoring Health analytics and patient monitoring ML algorithms Patient monitoring data, health analytics records Improved patient monitoring and health analytics through ML Data heterogeneity, real-time processing challenges

5 M. M. Uddin, Ashraful Islam, Rina Rani Saha, Debashish Goswami The Role Of Machine Learning In Transforming Healthcare: A Systematic Review Transforming healthcare ML algorithms Various healthcare datasets Systematic review highlighting the transformative role of ML in healthcare Variability in study methodologies, generalizability of findings

6 Kristijan Cincar, Andrea Amalia Minda, Marija Varga A Simulation-based Analysis Using Machine Learning Models to Optimize Patient Flow and Treatment Costs Patient flow and treatment cost optimization ML models, simulation techniques Hospital operational data Optimization of patient flow and reduction in treatment costs through simulation-based analysis Model complexity, data accuracy

7 Iman Akour, Said A. Salloum The Impact of Big Data Analytics on HealthCare: A Systematic Review Big data analytics in healthcare Big data analytics Various healthcare datasets Systematic review demonstrating the impact of big data analytics on healthcare Data privacy concerns, integration challenges

8 Monika Sharma, Dimple Tiwari, Neeta Verma, Anjali Singhal Revolutionizing Healthcare: The Power of Machine Learning ML in healthcare ML algorithms EHRs, genomic data Highlighted the revolutionary potential of ML in healthcare Ethical considerations, data security

9 Olayanju Adedoyin Zainab, Toochukwu Juliet Mgbole Utilization of Big Data Analytics to Identify Population Health Trends and Optimize Healthcare Delivery System Efficiency Population health trends and healthcare delivery efficiency Big data analytics Population health data, healthcare delivery records Identification of health trends and optimization of healthcare delivery through big data analytics Data integration issues, scalability

10 Royana Anand Enhancing Patient Care Pathways through AI-Driven Data Science and Program Management Strategies Patient care pathways enhancement AI-driven data science Patient care data, program management records Improved patient care pathways through AI-driven strategies Implementation challenges, data quality

Meta-analysis

Key findings Method used Advantage Remarks
Integrated big data sources such as EHRs, medical imaging, and wearable devices for a comprehensive view of patient health Big data analytics Improved decision-making and patient outcomes Improved clinical decision-making and disease diagnosis accuracy
Introduced GNNs for disease prediction, leveraging relationships between patient variables GNNs Enhanced prediction accuracy and model interpretability Outperformed traditional ML models in prediction accuracy
Demonstrated FL for collaborative training on decentralized data while ensuring data privacy FL Preserved data privacy, comparable model accuracy Ensured compliance with privacy regulations while achieving competitive accuracy
Explored ML in optimizing hospital operations, particularly resource allocation and staff scheduling ML Enhanced hospital efficiency by 20% ML models improved hospital operations, leading to a 20% efficiency improvement
Expanded on the challenges of integrating and processing fragmented healthcare data using big data technologies Big data analytics Real-time analytics improving decision-making Identified challenges like data quality, but improved decision-making and operational efficiency
Applied RL to personalize treatment plans based on patient-specific data RL Dynamic treatment optimization, real-time feedback Demonstrated the effectiveness of RL in personalized treatment regimens
Integrated privacy-preserving mechanisms like differential privacy and SMPC with FL FL with differential privacy and SMPC Ensured privacy during model training Safeguarded patient data while ensuring feasible deployment of ML models in healthcare
Proposed hybrid system integrating ML with hospital management systems to optimize patient flow and reduce waiting times Hybrid system (ML + hospital management systems) Improved operational efficiency by 30% Increased hospital efficiency through dynamic scheduling, reducing waiting times by 30%
ML models applied to large-scale health data to predict patient outcomes and identify disease patterns ML Improved diagnostic accuracy and treatment plans Applied ML to enhance disease prediction and patient outcome identification
Combined GNNs and RL for a hybrid model to improve both disease prediction and treatment optimization Hybrid model (GNN + RL) Enhanced healthcare delivery, better disease prediction and treatment Integrated GNN and RL for improved prediction accuracy and treatment outcomes
Compared FL and centralized models, highlighting the advantages of FL in data privacy and security FL Ensured patient data confidentiality FL offered better data privacy with minimal trade-offs in accuracy
Introduced predictive analytics for staffing needs based on patient admission rates, reducing downtime, and improving care Predictive analytics for staffing Reduced downtime, improved care delivery Enhanced patient care by improving staffing efficiency
Suggested integrating XAI for improved scalability and interpretability of ML models in healthcare XAI Increased clinician trust, better transparency Proposed XAI for improved transparency in ML model predictions
Explored combining ML with edge computing for real-time patient monitoring to reduce latency and enhance efficiency Edge computing + ML Faster decision-making, reduced latency Integrated edge computing to enable faster, real-time decision-making in patient care
Proposed using block chain technology to enhance FL, ensuring secure and immutable records of patient data Block chain + FL Improved data security and integrity Block chain ensured secure data transmission and integrity in FL environments
Discussed limitations of ML models in handling incomplete or biased data, calling for robust pre-processing techniques ML Addressed limitations in data quality Focused on improving data handling and pre-processing for better model accuracy
Lingua:
Inglese
Frequenza di pubblicazione:
1 volte all'anno
Argomenti della rivista:
Ingegneria, Introduzioni e rassegna, Ingegneria, altro