Leveraging Cloud Infrastructure for Environmental Monitoring in Healthcare: An LSTM Approach with Adam Optimization
Abstract
The healthcare industry is accepted, advanced technology increasingly in practice-with focus on patient
safety and efficiency in operational management. However, the existing environmental monitoring system in
a healthcare facility is often characterized by manual inspections and small sensor networks, which do not
scale well within vast volume real-time data. Traditional methods are unable to provide continuous and real
time visibility resulting in a delayed action to a hazardous condition. Most of these systems cannot integrate
predictive analysis through machine learning techniques, limiting anticipation of risks. This also leaves them
useless in merging IoT devices with the cloud infrastructure to accomplish real-time data processing and
analysis. Thus, the compromise of patient safety and operational efficiency in healthcare environments
exists. This paper introduces a cloud environmental monitoring system for healthcare that uses IoT sensors,
Long Short-Term Memory (LSTM) networks, and Adam optimization in real-time monitoring of critical
environmental parameters such as temperature, humidity, air quality, and CO2 levels. The system uses cloud
infrastructure to collect, store, and process the data about such environments securely, which would later
allow alerts being given to healthcare professionals concerning exposure to unsafe conditions. LSTM
captures long-term characteristics in time-series data, and Adam optimization contributes to efficient model
training leading to prediction accuracy. The methodology brings out a promising approach showing high
performance concerning accuracy, precision, recall, and F1-score and will demonstrate that large volumes of
sensor data can be handled. Real-time classification capabilities and high sensitivity demonstrated by an
AUC of 0.99 in the ROC curve will view this system as an excellent tool for improving patient safety and
facility management. Thereby ensuring environmental monitoring in healthcare settings is scalable and
efficient, if not accurate.