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INTELLIGENT HOSPITALIZATION

ORDINARY APPLICATION

Published

date

Filed on 4 November 2024

Abstract

ABSTRACT This project introduces a Critically Ill Patient Care Unit system designed to improve the management of critically ill patients and facilitate their rapid recovery. The system aims to raise healthcare professionals' situational awareness by providing instantaneous access to real-time patient vital signs and information such as IV levels. By implementing real-time dashboards and alerts, clinicians are empowered to take swift actions, significantly reducing the time traditionally spent on vital sign observations. This results in enhanced efficiency for nursing staff, who can now monitor patients conveniently from their desks and generate comprehensive reports. Moreover, the system enables doctors to closely monitor patients and generates alerts when abnormal vital signs are detected. The system also includes advanced monitoring for abnormal movements, such as when a patient suddenly falls down, triggering immediate alerts to healthcare professionals for a rapid response. Ultimately, the proposed system aims to Increase the standard of care for critically ill patients, making healthcare delive�ry more effective, responsive, and safe��

Patent Information

Application ID202441084048
Invention FieldBIO-MEDICAL ENGINEERING
Date of Application04/11/2024
Publication Number46/2024

Inventors

NameAddressCountryNationality
Kamal Jeyaram TDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Govindha Rajulu EDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Sanjai PDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Yogeshwaran sDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Dr. M. KanthimathiDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia

Applicants

NameAddressCountryNationality
SRI SAI RAM ENGINEERING COLLEGEDr. M.KANTHIMATHI , PROFESSOR, DEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44. hod.ci@sairam.edu.in +91 7845128555IndiaIndia
Kamal Jeyaram TDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Govindha Rajulu EDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Sanjai PDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Yogeshwaran sDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia
Dr. M. KanthimathiDEPARTMENT OF COMPUTER SCIENCE AND ENGINEERING (INTERNET OF THINGS) , SRI SAI RAM ENGINEERING COLLEGE, SAI LEO NAGAR, WEST TAMBARAM, CHENNAI-44.IndiaIndia

Specification

INTELLIGENT HOSPITALIZATION
FIELD OF INNOVATION
The field of innovation for this proposed system falls under Healthcare Technology and
Critical Care Management, with a focus on Digital Health, Patient Monitoring, and Clinical
Decision Support and Abnormal Movement Detection .
Real-time Patient Monitoring: This aspect enables constant observation of vital signs such as
heart rate, pulse, blood oxygen, IV levels, and other critical metrics, including abnormal values,
improving situational awareness for healthcare providers.
Remote Monitoring and Accessibility: The system allows nursing staff and doctors to monitor
patients from any location within the hospital using real-time dashboards, increasing efficiency in
critical care settings.
Automated Alerts and Notifications: Instant alerts notify clinicians of abnormal vitals ur
movements, enhancing rapid intervention capabilities, thus reducing response times.
Enhanced Workflow for Nurses: By enabling nurses to monitor multiple patients
simultaneously from their desks and generate reports, the systern reduces the manual workload
and increases overall efficiency.
Data-driven Decis;.>n ~upport: By integrating patient data into real-time dashboards and
generating actionable insights, the system can assist healthcare professionals in making
quicker, more informed decisions, especi:1lly when abnormal movement are detected.
BACKGROUND OF INVENTION
It was owing to the demand to handle critically ill patients more efficiently and effectively in
healthcare environments that the idea of the Critically Ill Patient Care Unit system evolved.
Traditionally, patient monitoring in a critical condition demands frequent manual checks by the
nursing staff and clinicians, which leads to eventual delays in responding to alterations in the
status of a patient's health. In the critical ill patients must have their vitals monitored
continuously, which include heart rate, blood pressure, oxygen saturation, and IV level. If an
abnormal deviation in ihese parameters is not quickly noticed, it might result in severe
complications or even death.
The present invention meets the above mentioned critical challenge by providing a system that
gives professionals working in healthcare real-time access to their key health information and
their vitals. This solution ensures that needs are more proactive and immediate as real-time
dashboards are implemented along with automated alert systems. Automated alerts for sudden
movement or falls will allow the nurse to intervene quickly, minimizing the chance of injury or
deterioration to the patient. It has benefits in making the work of health workers effective,
particularly nurses, by monitoring patients at one station centrally and, thus, reducing the rounds
of each one of them; they improve the workflow.
Growing demand for better outcomes of care, coupled with improved medical technology, has
been pushing the development of such systems. With AI and loT in healthcare, the proposed
system integrates these technologies to offer a smart, data-driven approach to patient care, both
raising the accuracy of monitoring and the speed of response. The proposed solution not only
raises the quality of care provided for patients but also enhances the operations of a hospital in
terms of the sophistication of managing patients.
OBJECTIVES
�!� Real-time Monitoring: Provide continuous, real-time monitoring of patient vital signs
(heart rate, blood pressure, oxygen levels, etc.) and IV fluid levels, ensuring timely
detection of any abnormalities.
�!� Automated Alerts: Generate immediate alerts for healthcare professionals in response
to critical changes in a patient's health status, such as abnormal vital signs or sudden
movements like falls, enabling rapid intervention.
�:� Efficiency for Healthcare Staff: Enhance workflow efficiency by allowing nurses and
doctors to monitor patients from a central dashboard, reducing manual rounds, and
improving response times.
�!� Improved Patient Safety: Increase patient safety through advanced monitoring features
that help prevent critical health deterioration or accidents, thus minimizing risks and
enhanc:ng tl~e quality of care.
�:� Comprehensive Reporting: Enable healthcare staff to generate detailed reports on
patient health trends, vit<:l signs, and care responses, aiding in better clinical
decision-making and patient management.
&#65533;!&#65533; At-driven Diagnostics: Incorporate AI to support early detection of potential health
complications, providing doctors with actionable insights to facilitate early diagnosis and
treatment.
&#65533;!&#65533; Scalability and Integration: Ensure that the system is scalable and can integrate with
existing hospital infrastructure, supporting multiple patients and various monitoring
systems simultaneously.
SUMMARY OF INVENTION
The invention introduces an advanced Critically Ill Patient Care Unit aimed at transforming the
management of critically ill patients by integrating cutting-edge technology to provide real-time
monitoring and timely interventions. This system elevates the situational awareness of
healthcare professionals by offering instantaneous access to vital signs such as heart rate,
blood pressure, oxygen saturation, and IV fluid levels, all displayed on user-friendly dashboards.
By delivering real-time updates and automated alerts, the system reduces manual checks,
allowing clinicians to focus on patient care rather than routine observations.
Key Features and Innovations
&#65533;:&#65533; Real-Time Vital Sign Monitoring: Instant, continuous tracking of heart rate, blood
pressure, and oxygen saturation is provided on a live dashboard.
&#65533;:&#65533; Centralized Dashboard for Nursing Staff: Nurses can monitor all patients in one place,
significantly improving their workflow.
&#65533;:&#65533; Automated Alerts for Critical Conditions: The system sends automatic alerts when a
patient's vitals cross predefined critical levels.
&#65533;&#65533;&#65533; Abnormal Movement Detection: Sensors detect sudden movements like falls,
triggering immediate alerts to healthcare staff.
&#65533;:&#65533; AI-Driven Diagnostic Assistance: AI identifies patterns in vital sign data and alerts
clinicians to potential health risks before they escalate.
&#65533;:&#65533; IV Level Monitoring and Alerts: Monitors IV fluid levels and sends alerts when a refill is
required to prevent therapy disruption.
&#65533;:&#65533; Remote Access for Doctors: Doctors can remotely monitor patient data and receive
real-time alerts for critical conditions on their devices.
&#65533;=&#65533; Comprehensive Reporting and Analytics: The system ~enerate$ in-deDth reports and
analytics on patient health trends for better decision-making.
&#65533;:&#65533; Fall Prevention and Rapid Response: Detects falls and immediately notifies healthcare
professionals to prevent further harm.
&#65533;:&#65533; S 'alat)ility and Integration with Hospital Systems: Seamlessly integrates with
hospital systems like HIS and EMR, ensuring easy adoption and scalability.
BENEFITS
&#65533;:&#65533; Real-time monitoring and automated alerts ensure that critical changes in a patient's
condition are detected immediately, allowing for rapid medical intervention.
&#65533;:&#65533; The centralized dashboard reduces the need for frequent bedside checks, allowing
healthcare staff to monitor multiple patients at once and streamline their workflow.
&#65533;=&#65533; At-powered analytics provide early warnings and actionable insights, helping clinicians
make informed decisions and prevent complications before they escalate.
&#65533;=&#65533; Abnormal movement detection, such as falls, triggers immediate alerts, ensuring swift
responses to prevent further injury or health deterioration.
&#65533;:&#65533; Doctors can access vital signs and receive alerts remotely, improving patient oversight
even when they are off-site, contributing to continuous care
BRIEF DESCRIPTION OF DRAWINGS
Brief description of drawings
Figure 1:
This image shows a logo and title for the "Intelligent Hospitalization" project. The logo combines
a water droplet shape with a medical cross symbol, rendered in glowing blue on a dark
background. Below the logo is the project title "Intelligent Hospitalization". The image also
includes an inspirational quote from Mahatma Gandhi about service to others, which aligns with
the healthcare focus of the project.s, reducing
Figure 2:
This image displays a login screen for what appears to be the user interface of the Intelligent
Hospitalization system. It has a clean, modern design with a "Welcome Back" message and
fields for email address and password entry. This likely represents the access point for
healthcare professionals to log into the patient monitoring dashboard.
Figure 3:
This image shows a mockup of the "Patients Dashboard" for the Intelligent Hospitalization
system. It displays vital sign information for 8 different patients, including heart rate, Sp02
(blood oxygen saturation), and body temperature. Each patient card has a profile picture and a
"View Vitals" button, suggesting more detailed information is available. This dashboard aligns
with the project's goal of providing healthcare staff with real-time patient monitoring capabilities.
Figure 4: Vitals for Patient 1
This page displays a comprehensive overview of" single patient's current vital signs. It includes
six key metrics, each with its current value and status indicator. The page also features a patient
monitoring section and an overall patient status indicator.
Figure 5: Patient History
Th:s sc,:een shows historical data for a patient's vital signs over a 29-day period. It includes four
graphs tracking different health metrics over time, allowing healthcare professionals to observe
trends and patterns in t~e patient's condition.
Figure 6: Doctor's Dashboard
This dashboard provides a high-level overview for a doctor. It displays summary statistics of
patient numbers and a table of recent patients. The table includes information such as patient
names, admission dates, treatments, current status, and options to view detailed reports.
Figure 7: Doctor Profile
This page shows the profile information for a doctor. It includes personal and professional
details such as name, contact information, hospital affiliation, specialization, education, and
years of experience. The page also features options to add a new patient, edit the profile, and
log out.
Figure 8: ECG Prototype
These electrodes are connected to a microcontroller that is wired to a laptop. The laptop screen
displays a graph, likely showing real-time signal data, such as electrocardiogram (ECG)
readings, which represent the electrical activity being monitored from the person's muscles or
heart it will shows real time data to doctor, nurses and hospital management through mobile
application/web dashboardh a medical
Figure 9: Abnormal movements
The system uses cameras to watch over patients, tracking their movements throughout the day.
It can tell the difference between normal actions, like shifting in bed, and more dangerous
movements, such as falling or having an abm=normal movements ..
Figure 10: Flow of our project
The Intelligent Hospitalization project is designed to improve the monitoring and care of
critically ill patients using advanced sensor technology and machine learning. Various sensors
are deployed to track vital signs such as blood oxygen levels, heart rate, pulse, temperature,
and IV fluid levels. These sensors are connected to microcontroller, which gathers and
processes the data in real time. Additionally, a surveillance camera continuously monitors
patient movements, detecting any abnormal behaviors such as sudden falls. Machine learning
algorithms analyze the data from the surveillance camera to identify potential risks, and if any
critical issues are detected, immediate alerts are triggered. All collected data is securely sent to
a cloud platform using Firebase, making it easily accessible to healthcare professionals.
Doctors and nurses can view patient information through a real-time dashboard, allowing them
to monitor patients remotely and respond swiftly to emergencies.
DETAILED DESCRIPTION OF THE INVENTION
Th3 Intelligent Hospitalization project, developed by Team INHOZ, is an advanced healthcare
solution that leverages the Internet of Things {loT) technology and machine learning to
revolutionize the management and care of critically ill patients. This innovative system
addresses key challenges in hospital settings, particularly in intensive care units, by providing
real-time monitoring, data-driven insights, and At-assisted diagnostics.
Key Components
1. Real-time Vital Sign Monitoring
- Utilizes a network of sensors to continuously track crucial patient vital signs:
Temperature
Pulse rate
Blood oxygen levels {Sp02)
Heart rate
IV {Intravenous) fiuid levels
Blood pressure
Provides instantaneous data collection and transmission to central systems
2. Centralized Patient Dashboard
Offers a comprehensive, user-friendly interface for healthcare professionals
Displays real-time vital sign data for multiple patients simultaneously
Includes visual indicators for normal, low, and high vital sign ranges
Features a patient status summary for quick assessmentweb dash
3. Historical Data Tracking and Visualization
&#65533; Maintains a database of patient health data over time
&#65533; Generates graphical representations of vital sign trends
&#65533; Allows healthcare providers to identify patterns and track patient progress
4. At-Driven Diagnostic Support
&#65533; Incorporates machine learning algorithms to analyze patient data
&#65533; Provides diagnostic recommendations based on collected data and established medical
knowledge
&#65533; Aims to improve diagnostic accuracy and reduce time to diagnosis
5. Automated Alert System
&#65533; Monitors vital signs against predetermined thresholds
&#65533; Instantly notifies relevant healthcare staff of abnormal readings or concerning trends
&#65533; Enables rapid response to changes in patient conditions
6. Comprehensive Doctor's Interface
&#65533; Provides a high-level dashboard for physicians. including:
&#65533; Total patient count
&#65533; Current inpatients
&#65533; Discharged patients
&#65533; Offer~ quick access to individual patient reports and histories
&#65533; Allows for efficient management of patient caseloads
7. User Management System
&#65533; Includes personalized profiles for heaithcare professionals
&#65533; Manages access levels and permissions based on roles
&#65533; Ensures data security and patient privacy
Benefits and Impact
1. Enhanced Patient Care:
&#65533; Continuous monitoring reduces the risk of overlooking critical changes in patient
condition
&#65533; Faster response times to medical emergencies
&#65533; Personalized care based on comprehensive, real-time data
2. Improved Efficiency:
&#65533; Reduces time spent on manual vital sign checks
&#65533; Streamlines patient data management and reporting
&#65533; Enables healthcare professionals to focus more on patient care and less on
administrative taskse care unit
3. Data-Driven Decision Making:
o Provides physicians with comprehensive, easily ;;ccessible patient data
o Supports evidence-based treatment decisions
o Facilitates early detection of polential health issues
4. Reduced Healthcare Costs:
o Potential for shorter hospital stays due to optimized care
o More efficient allocation of healthcare resources
o Possible reduction in readmission rates through better follow-up care
5. Advanced Research Opportunities:
o Generates large datasets for medical research ann analysis
o Supports the development of more accurate predictive health models
G. Technical Implementation
o loT sensors for vital sign monitoring
o Secure data transmission protocols
o Cloud-based data storage and processing
o Machine learning algorithms for data analysis and predictions
o Web or Mobile application -based user interfaces for different stakeholders (nurses,
doctors, administrators)
7.Challenges and Considerations
o Ensuring data privacy and security in compliance with healthcare regtJifltinns
o Integration with existing hospital information systems
o Training healthcare staff to effectively use the new technology
o Maintaining system reliability in critical care environments
o Continual updating and improvement of AI algorithms based on new medical knowledge
The Intelligent Hospitalization project represents a significant advancement in healthcare
technology, aiming to improve patient outcomes, enhance operational efficiency, and support
healthcare professionals in delivering high-quality care in critical settings.

CLAIMS
WE CLAIMS,
1. A system for managing th.e care of critically ill patients, comprising an array of sensors to
monitor real-time vital signs such as heart rate, blood pressure, temperature, intravenous
{IV) fluid levels, and patient movements, with a central processing unit that provides
immediate feedback to healthcare professionals through dashboards and alerts.
2. The system, as claimed in claim 1, further includes a real-time alert mechanism that
notifies clinicians of abnormal changes in vital signs such as heart rate, blood pressure,
temperature,IV levels, or sudden patient movements, enabling rapid response to
emergency conditions.
3. A monitoring unit, as claimed in claim 1, compnsmg sensors that track vital signs,
including heart rate, blood pressure, temperature, which transmits data continuously to a
centralized dashboard accessible by nursing staff and doctors.
4. An alert system, as claimed in claim 2, that uses advanced algorithms to detect
abnormal patterns in patient movements, including falls, and automatically generates
immediate alerts to medical staff for prompt intervention.
5. A central processing unit, as claimed in claim 1, that processes sensor data and
generates comprehensive reports on patient health status, accessible to healthcare
professionals remotely, enhancing their ability to track patient progress over time.
6. The system, as claimed in claim 1, further includes wireless communication capabilities,
allowing doctors and nurses to receive real-time alerts and monitor patient data from
mobile devices or computers, providing flexibility in managing patient care.
7. A fall detection feature, as claimed in claim 4, that utilizes motion sensors to detect
sudden, unusual movements and trigger an immediate response protocol to reduce the
risk of patient injuries due to falls.
8. The system, as claimed in claim 1, integrates with hospital information systems to
automatically update patient records with real-time data from the sensors, ensuring
accurate and up-to-date information for healthcare professionals.
9. A user interface, as claimed in claim 3, that features customizable dashboards allowing
healthcare professionals to configure alerts and monitor specific patient rMameters
based on individual care needs, improving personalized patient care.nclude
10. An Al-driven diagnostic feature, as claimed in claim 1, that uses machine learning
algorithms to analyze historical and real-time patient data, providing predictive insights
and recommendations for early detection of critical conditions or complications.

Documents

NameDate
202441084048-Form 1-041124.pdf07/11/2024
202441084048-Form 2(Title Page)-041124.pdf07/11/2024
202441084048-Form 3-041124.pdf07/11/2024
202441084048-Form 5-041124.pdf07/11/2024
202441084048-Form 9-041124.pdf07/11/2024

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