Biomedical Signal Processing and Monitoring

AI Research Group

A multidisciplinary R&D unit that aims to analyze physiological signals from the human body (ECG, EEG, EMG, respiration, blood pressure, oxygen saturation, etc.) using artificial intelligence methods and integrate them into clinical decision support systems.

About Our Research Group

Biomedical signals can be thought of as a digital language that reflects the instantaneous state of our body. Physiological signals such as heartbeats, brain waves, muscle activity, and breathing rhythm provide continuous information flow about our health status.

Artificial intelligence technologies can understand these complex signal data and detect deviations from normal patterns. This process is like an experienced musician instantly noticing a wrong-playing instrument in an orchestra.

The main goal of our group is to develop continuous patient monitoring, early warning systems, and signal-based disease prediction models using time series analysis, signal processing, and machine learning techniques.

Our Core Approach

Continuous physiological signal analysis
Early warning systems
Intensive care, operating room, and home care
Real-time monitoring systems

Our Application Areas

Main application areas where we develop AI-supported solutions in the field of biomedical signal processing

Cardiac Arrhythmia Detection

Heart rhythm analysis and arrhythmia detection algorithms

Epileptic Seizure Prediction

Early warning systems through EEG analysis

Respiratory Monitoring

Respiratory failure and apnea detection algorithms

Blood Pressure Analysis

Hypertensive crisis prediction and change analysis

Oxygen Saturation

Hypoxia alerts and oxygen deficiency detection

EMG Muscle Activity

Muscle activity and fatigue analysis

Our Example Applications

AI-supported signal analysis systems used and tested in real clinical environments

94% Accuracy

Cardiac Arrhythmia Detection Algorithm

Analyzes continuous ECG signals to detect atrial fibrillation, ventricular tachycardia, and other arrhythmias in real-time and provides emergency intervention alerts.

ECG Analysis Real-time Emergency Alert
94% accuracy in arrhythmia detection
23 Minutes in Advance

Epileptic Seizure Prediction System

Analyzes preictal changes in EEG signals to predict epileptic seizures an average of 23 minutes in advance with 89% sensitivity.

EEG Analysis Preictal Detection Early Warning
89% sensitivity in seizure prediction
2 Hours in Advance

Respiratory Failure Early Warning Platform

Integrates respiratory rate, tidal volume, and oxygen saturation data to predict respiratory failure development 2 hours in advance.

Respiratory Analysis Integrated Data Predictive Model
87% accuracy in early prediction
Multi-parameter

Multi-parameter Vital Signs Monitoring System

Simultaneously analyzes heart rate, blood pressure, respiratory rate, and body temperature signals to detect critical changes.

Vital Signs Simultaneous Critical Detection
92% precision in condition detection

Our Stakeholders

With our multidisciplinary approach, we collaborate with experts from health and engineering fields

Health Stakeholders

Cardiology
Neurology
Anesthesia
Intensive Care
Pulmonology
Sleep Medicine

Engineering Stakeholders

Biomedical Eng.
Signal Processing
Computer Eng.
Time Series
Machine Learning
Sensor Technologies

Research and Development Focus Areas

Main research topics we focus on for the development of artificial intelligence technologies in the field of biomedical signal processing

Time Series Analysis

Understanding time-dependent changes in physiological signals and predicting future states is critically important. It helps predict disease progression by detecting periodic changes, trend analysis, and seasonal fluctuations in signals.

Value: Disease progression prediction and trend analysis

Signal Noise Filtering

Advanced filtering algorithms to improve the quality of raw biomedical signals and extract clinically meaningful information. Systems that minimize electrical noise, motion artifacts, and other disruptive factors.

Criticality: Especially critical in mobile and home care environments

Automatic Anomaly Detection

Systems that automatically detect deviations from normal physiological signals. Algorithms that learn each patient's unique signal patterns and perform personalized anomaly detection accordingly.

Advantage: Minimizes the risk of missing critical situations

Multi-channel Signal Integration

Combining information from different physiological parameters for more comprehensive health status assessment. A holistic approach is achieved through integration of ECG, respiratory signals, and blood pressure data.

Innovation: Detects situations that single-parameter systems might miss

Signal-based Phenotyping

Classifying disease subtypes and patient groups according to physiological signal characteristics. Used in personalized medicine applications to predict disease progression and anticipate treatment response.

Future: Critical role in personalized medicine applications

Ethics and Security Protocols

Since physiological signals are sensitive personal data, secure processing, storage, and sharing protocols are essential. Designing systems that provide clinical benefit while protecting patient privacy.

Principles: Security and privacy-first design

Other Example Applications

Other specialized signal analysis systems and application areas we have developed

Anesthesia Depth Monitor

Analyzes EEG and EMG signals to continuously calculate surgical anesthesia depth and recommends optimal dosage.

EEG/EMG Surgery

Sleep Apnea Detection Algorithm

Detects obstructive sleep apnea episodes through respiratory signal and oxygen saturation analysis.

Respiratory 91% Accuracy

Muscle Fatigue Analysis System

Objectively measures muscle fatigue by analyzing frequency spectrum changes in EMG signals.

EMG Rehabilitation

Our Impact and Achievements

Concrete achievements and clinical impacts our Research Group has achieved in the field of biomedical signal processing

12+
Active Projects
Different signal modalities
18+
Researchers
Multidisciplinary team
91%
Average Accuracy
In clinical systems
250K+
Analyzed Signals
In validation process

Special Application Areas

Special patient groups and application environments where biomedical signal processing technologies are used

Neonatal Vital Monitoring

Analyzes heart rate, respiration, and oxygen saturation signals in premature babies to detect bradycardia and apnea episodes in advance.

Telemedicine Systems

Remote patient monitoring systems with continuous vital sign tracking and early warning systems in home care environments.

Geriatric Patient Analysis

Fall risk assessment, activity analysis, and chronic disease progression monitoring systems in elderly patients.

Collaboration Opportunities

Would you like to collaborate with us to develop artificial intelligence applications in the field of biomedical signal processing?

Clinical Collaborations

System development with real signal data in hospitals and intensive care units

Academic Projects

Research projects in signal processing and machine learning fields

Technology Partnerships

Signal analysis algorithm integration with medical device manufacturers