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Myocardial Contractility

Semantic Cluster13 Research Papers

Studies in this Category

ID: deep-learning-based-beat-to-beat-delineation-of-heart-sounds-and-fiducial-points-in-seismocardiography2025

Deep learning-based beat-to-beat delineation of heart sounds and fiducial points in seismocardiography

This study developed an AI tool that accurately detects key heart vibration points, enabling better heart monitoring for patients with or without heart disease.

#scg#accelerometer#deep-learning
ID: postural-and-longitudinal-variability-in-seismocardiographic-signals2023

Postural and longitudinal variability in seismocardiographic signals

This study shows that SCG signals, which measure heart vibrations, change with posture but remain stable over time, making them promising for long-term heart monitoring.

#scg#accelerometer
ID: effect-of-the-airway-pressure-on-the-frequency-domain-of-seismocardiographic-signal2023

Effect of the Airway Pressure on the Frequency Domain of Seismocardiographic Signal

This study shows how changes in breathing pressure affect heart vibrations, which could help monitor heart muscle health in the future.

#scg#accelerometer
ID: can-seismocardiogram-fiducial-points-be-used-for-the-routine-estimation-of-cardiac-time-intervals-in-cardiac-patients2022

Can Seismocardiogram Fiducial Points Be Used for the Routine Estimation of Cardiac Time Intervals in Cardiac Patients?

This research shows that SCG signals can help monitor heart function but may not work for all patients. A preliminary test is needed to ensure accuracy before using this method in clinical settings.

#scg#accelerometer#ultrasound
ID: computer-aided-detection-of-fiducial-points-in-seismocardiography-through-dynamic-time-warping2022

Computer-Aided Detection of Fiducial Points in Seismocardiography through Dynamic Time Warping

This study shows how advanced algorithms can improve heart monitoring by accurately detecting key heart signals from chest vibrations, helping predict heart failure with over 92% accuracy.

#scg#accelerometer#echocardiography
ID: discrete-wavelet-transforms-based-analysis-of-accelerometer-signals-for-continuous-human-cardiac-monitoring2021

Discrete Wavelet Transforms-Based Analysis of Accelerometer Signals for Continuous Human Cardiac Monitoring

This study shows how chest vibrations measured by accelerometers can detect heart activity using advanced wavelet algorithms, even without ECG. The methods work well in resting conditions but need improvement for noisy environments like breathing tasks.

#scg#accelerometer
ID: a-comprehensive-review-on-seismocardiogram-current-advancements-on-acquisition-annotation-and-applications2021

A Comprehensive Review on Seismocardiogram: Current Advancements on Acquisition, Annotation, and Applications

This study reviews how SCG, a method to measure heart vibrations, is advancing with new sensors and AI to monitor heart health more effectively, even at home. It also highlights challenges like reducing noise in signals during movement.

#scg#accelerometer#contactless
ID: influence-of-sympathetic-activation-on-myocardial-contractility-measured-with-ballistocardiography-and-seismocardiography-during-sustained-end-expiratory-apnea2020

Influence of sympathetic activation on myocardial contractility measured with ballistocardiography and seismocardiography during sustained end-expiratory apnea

This study shows that heart vibrations measured during breath-holding can reveal changes in nerve activity linked to sleep disorders, offering a new way to monitor heart health non-invasively.

#scg#accelerometer#bcg
ID: quantification-of-cardiac-kinetic-energy-and-its-changes-during-transmural-myocardial-ischemia-assessed-by-multi-dimensional-seismocardiography2020

Quantification of cardiac kinetic energy and its changes during transmural myocardial ischemia assessed by multi-dimensional seismocardiography

This research shows how a vibration-based heart monitoring system can track heart damage during a heart attack and recovery, offering a new way to measure heart function remotely and non-invasively.

#scg#accelerometer#gyroscope
ID: performance-analysis-of-gyroscope-and-accelerometer-sensors-for-seismocardiography-based-wearable-pre-ejection-period-estimation2019

Performance Analysis of Gyroscope and Accelerometer Sensors for Seismocardiography-Based Wearable Pre-Ejection Period Estimation

This study shows that combining gyroscope and accelerometer data improves heart health monitoring, making wearable devices more accurate for tracking cardiac function.

#scg#accelerometer#gyroscope
ID: visualization-of-the-multichannel-seismocardiogram2019

Visualization of the Multichannel Seismocardiogram

This study explores ways to visualize chest vibrations caused by heart activity using data from 16 sensors. The methods help researchers better understand how these vibrations relate to heart function.

#scg#accelerometer
ID: recent-advances-in-seismocardiography2019

Recent Advances in Seismocardiography

This study reviews how SCG, a method to measure heart vibrations, is improving with new sensors and AI, showing promise for diagnosing heart conditions like atrial fibrillation and heart failure noninvasively.

#scg#accelerometer#ultrasound
ID: automatic-detection-of-seismocardiogram-sensor-misplacement-for-robust-pre-ejection-period-estimation-in-unsupervised-settings2017

Automatic Detection of Seismocardiogram Sensor Misplacement for Robust Pre-Ejection Period Estimation in Unsupervised Settings

This research shows that SCG sensors must be correctly placed on the chest to measure heart function accurately. A machine learning algorithm helps users detect misplacement, improving home-based heart monitoring for heart failure patients.

#scg#accelerometer#impedance-cardiography