Asynchrony Events Statistic
The SV900 ventilator combines real-time monitoring, adaptive ventilation, and predictive analytics to improve lung protection, optimise patient-ventilator interaction, and support clinical decisions throughout the ICU therapy cycle.
With clinically-validated asynchrony recognition, non-invasive respiratory effort monitoring, intelligent weaning assessment, and modular EIT integration, the SV900/SV700 empowers clinicians to provide individualised, evidence-based ventilation therapy in complex critical care.
A high-end ventilator harnesses advanced technology and clinical expertise to enhance comprehensive diagnosis and individualized treatment.
Advanced monitoring parameters with intelligent alerts that enable individualised protection against ventilator-induced lung injury.
Data-driven insights and predictive analytics supporting confident decisions from initial settings through weaning.
Intelligent recognition of asynchrony events with targeted adjustment suggestions that reduce complications and improve patient comfort.
Ventilator-induced lung injury (VILI) remains a critical challenge in mechanical ventilation, increasing ICU mortality from 39% to 51%.[1] The SV900/SV700 provides individualised protection through advanced monitoring parameters, intelligent alerts, and real-time respiratory mechanics assessment.
Mechanical power quantifies the total energy transferred from the ventilator to the lungs per minute, providing a comprehensive assessment of VILI risk. The SV900 calculates mechanical power continuously in real time, enabling early detection of injurious ventilation and timely protective intervention.
Clinical validation across 50 ARDS patients in both volume- and pressure-controlled ventilation demonstrated strong agreement with standard calculated methods (R²=0.98; bias 0.38 J/min).[2]
Oesophageal pressure (Pes) and transpulmonary pressure (Ptp) are critical for optimising lung-protective ventilation. The SV900/SV700 offers integrated, convenient, and precise Pes/Ptp monitoring with a dedicated catheter featuring automatic position detection, baseline correction, and cardiac artifact filtration.
Auxiliary catheter placement:
Guide Pes balloon positioning.
Baseline correction:
Correct Pes baseline deviation.
Waveform filtration:
Remove disturbance of cardiac noise.
The integrated PulmoSight Pro dashboard graphically displays advanced monitoring parameters including driving pressure, mechanical power, resistance, and compliance in real time. Combined with dynamic short trends, it enables clinicians to monitor and evaluate changes in the patient’s respiratory status and identify lung injury risk at a glance.
Patient-ventilator asynchrony affects 10-85% of mechanically ventilated patients, increasing mortality and prolonging ventilation duration.[3] The SV900/SV700 combines intelligent asynchrony recognition with adaptive ventilation modes to detect, analyse, and resolve synchrony events in real time.
The SV900/SV700 integrates clinical research, big data modelling, and continuous waveform analytics to identify five types of patient-ventilator asynchrony in real time:
Clinical studies in 24 patients demonstrated significant reductions in total asynchrony index, with improvements in both trigger timing and cycling-off errors compared to fixed settings.[4]
Asynchrony Events Statistic:
Comprehensive overview of detected asynchrony events and
their distribution.
Key Asynchrony Analysis:
Identification of the predominant asynchrony type
requiring intervention.
Targeted Adjustment Suggestions:
Algorithm-based recommendations to resolve specific
asynchrony types, reducing clinical trial-and-error.
Asynchrony Alarm:
Configurable alerts when asynchrony index exceeds
clinical thresholds.
Asynchrony Analysis:
Detailed breakdown of each event type with trend data.
Asynchrony Mark:
Real-time waveform labelling for intuitive visual
identification.
Asynchrony Events Statistic
Comprehensive overview of detected asynchrony events and their distribution.
Key Asynchrony Analysis
Identification of the predominant asynchrony type requiring intervention.
Ventilation Adjustment Suggestion
Algorithm-based recommendations to resolve specific asynchrony types, reducing clinical trial-and-error.
Asynchrony Alarm
Configurable alerts when asynchrony index exceeds clinical thresholds.
Asynchrony Analysis
Detailed breakdown of each event type with trend data.
Asynchrony Mark
Real-time waveform labelling for intuitive visual identification.
SV900/SV700 integrates clinical research, and waveform analytics (Paw, Flow, Pes) to instantly identify diverse PVA patterns, providing real-time, continuous monitoring to optimize clinical intervention.
AMV™: An adaptive ventilation mode that automatically adjusts to patient status based on the Otis minimum breathing work principle. Adapting tidal volume, frequency, and inspiratory-to-expiratory ratio from mandatory to full spontaneous ventilation.
IntelliCycle™ Pro: Automatically adapts to the patient’s breathing pattern based on waveform analysis. Adjusting inspiratory trigger sensitivity, cycling-off criteria, and pressure slope to reduce work of breathing and avoid pressure overshoot or flow starvation.
The SV900/SV700 calculates respiratory muscle pressure (Pmus) automatically, enabling continuous assessment of breathing effort without catheters or additional accessories (R²=0.97).[5]
The SV900/SV700 is equipped with intelligent tools designed to support decision-making throughout the ICU therapy cycle, empowering clinicians at every stage through to safe extubation.
The SV900/SV700 is designed to minimise operational complexity, enabling clinicians to focus on patient care. Comprehensive connectivity supports seamless integration into existing hospital workflows.
The SV900/SV700 supports flexible connectivity to the central monitoring system (CMS) through wired or wireless interfaces, enabling unified management of multi-patient ventilators and bedside devices.
Multi-device interconnection with humidifiers, patient monitors, and other bedside equipment.
Clinician-tailored solutions including remote control and Silent ICU capability.
A patient profile platform with comprehensive ventilatory reports and convenient patient grouping.
Disclaimer: Any and all functions of the products are available to your country or territory provided that the required registration of such function is duly completed in accordance with local regulatory law requirements. Any and all products available to your country or territory provided that the required registration of such products is duly completed in accordance with local regulatory law requirements. You may contact our authorized distributors to further confirm whether the functions or the products you are interested in are accessible in your country or territory.
* Requires connection to a Mindray patient monitor (BeneVision N Series or above).
[1] Intensive Care Med. 2004 Apr;30(4):612-9
[2] Chiumello D, Coppola S, Formenti P, Ciabattoni A, Lucenteforte M,
Liu G, et al. A validation study of a continuous automatic measurement
of the mechanical power in ARDS patients. Journal of Critical Care.
2022; 67:21-25. doi: 10.1016/j.jcrc.2021.09.009.
[3] Sci Rep. 2021 Jun;11(1):12390
[4] Liu L, Yu Y, Xu X, Sun Q, Qiu H, Chiumello D, Yang Y. Automatic
Adjustment of the Inspiratory Trigger and Cycling-Off Criteria
Improved Patient-Ventilator Asynchrony During Pressure Support
Ventilation. Frontiers in Medicine. 2021; 8:752508. doi:
10.3389/fmed.2021.752508.
[5] Lv Y, Dong M, Song H, Liu J, Huang Z, Ni Z, et al. Respiratory
effort monitoring: a novel, bedside, non-invasive, real-time method.
Critical Care. 2025; 29:272. doi: 10.1186/s13054-025-05514-4