Preemptive Epidemic Information Transmission Model Using Nonreplication Edge Node Connectivity in Health Care
Chandu Thota1, Constandinos X Mavromoustakis1, George Mastorakis2
1Department of Computer Science, University of Nicosia, Nicosia Cyprus.
This study introduces the Preemptive Information Transmission Model (PITM) to enhance medical data delivery during epidemics. PITM optimizes transmission speed and reliability, ensuring seamless access to sensitive health information.
Area of Science:
- Medical Informatics
- Network Engineering
- Epidemiology
Background:
- Advancements in information and communication technologies have improved medical data organization and transmission.
- The increasing volume of digital communication necessitates optimized accessibility and transmission of sensitive medical data.
- Ensuring reliable medical data transmission is crucial, especially in epidemic regions.
Purpose of the Study:
- To introduce the Preemptive Information Transmission Model (PITM) for prompt medical data delivery.
- To design a transmission model that minimizes communication overhead in epidemic regions.
- To improve the availability and reduce delays in transmitting sensitive medical data.
Main Methods:
- The Preemptive Information Transmission Model (PITM) utilizes a noncyclic connection procedure and preemptive forwarding.
- Replication-less connection maximization is achieved through pruning tree classifiers based on communication time and delivery balancing.
- Conditional selection of infrastructure units ensures reliable data forwarding.
Main Results:
- The proposed PITM model reduces connection replications, enhancing edge node availability.
- The model optimizes transmissions, communication time, and minimizes delays in medical data delivery.
- Seamless information availability is achieved even within epidemic regions.
Conclusions:
- The Preemptive Information Transmission Model (PITM) effectively improves the promptness and reliability of medical data transmission.
- PITM ensures better data delivery, reduced communication time, and fewer delays, particularly in critical situations like epidemics.
- The model's design supports efficient and seamless access to vital medical information.
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