Exquisite design, small dead space;
Precise size, tight connection;
Made of medical grade material, safe and reliable;
Strong compatibility;
Project | Specifications |
Principle of Operation | Connected to the gas path, make the EtCO2 Sensor to measure the gas passing through it. |
Product Type | Accessories(Used with EtCO2 Sensor). |
Initialization Time | Immediately after accessing the gas path. |
Patient Type | Adult & Pediatric. |
Patient Use Style | Single-patient-use. |
Service Life | Single patient use only (Or continuous use for more than 6 hours). |
Minimum Shelf Life | 2 Years. |
Temperature | Operating: 0 to 40°C; Storage: -40 to 70°C; Transport: -40 to 70°C. |
Humidity | Operating: 10 to 90% RH, non-condensing; Storage: 10 to 90% RH, non-condensing. Transport: 10 to 90% RH, non-condensing. |
Atmospheric Pressure | Operating: 400-800 mmHg; Storage: 400-800 mmHg; Transport: 400-800 mmHg. |
Sterile OR Non-Sterile | Non-Sterile. |
Latex Free | Not manufactured with natural rubber latex |
Dead Space | ≤6CC. |
Weight | <10g. |
Size | Deepth*Wideth*Highth: 57mm*22mm*28mm. |
Adaptable to mainstream EtCO2 sensor access to the main gas path, it accurately and swiftly collects end-tidal carbon dioxide values. This is a disposable consumable. Two models are available for adults/children (CSM01A) and infants (CSM01B) to cater to different patient types
Anesthesia Monitoring: During anesthesia administration, monitoring EtCO2 levels is essential to ensure proper ventilation and assess the patient's respiratory status. Disposable EtCO2 airway adapters facilitate the connection between the patient's airway and the capnography monitoring system, allowing continuous monitoring of exhaled CO2 levels throughout the surgical procedure.
Intensive Care Unit (ICU) Monitoring: In ICU settings, continuous monitoring of EtCO2 is vital for patients on mechanical ventilation or those with compromised respiratory function. Disposable EtCO2 airway adapters enable secure attachment to the endotracheal tube or tracheostomy tube, allowing accurate monitoring of EtCO2 levels in critically ill patients.
Emergency Medicine: During emergency medical interventions such as cardiopulmonary resuscitation (CPR) or airway management, the disposable EtCO2 airway adapter facilitate rapid connection to the capnography monitor. Monitoring EtCO2 levels in real-time helps assess the effectiveness of ventilation and guide treatment decisions in emergent situations.
Pediatric Care: The disposable end tidal CO2 adapter is available in pediatric sizes, making them suitable for use in monitoring EtCO2 levels in infants and children. They ensure a secure and appropriate connection to the patient's airway, allowing accurate assessment of respiratory function in pediatric patients undergoing anesthesia, critical care, or emergency procedures.
Transportation and Mobile Care: In settings where patients require transportation, such as ambulances or air medical transport, disposable EtCO2 airway adapters facilitate continuous monitoring of EtCO2 levels during transit. Their disposable nature ensures convenience and hygiene, making them ideal for use in mobile healthcare settings.
Procedural Sedation: During procedures requiring sedation or analgesia, monitoring EtCO2 levels helps ensure patient safety by detecting hypoventilation or respiratory depression. The disposable EtCO2 airway adapter enable easy connection to nasal cannulas or facemasks, allowing continuous monitoring of exhaled CO2 levels during procedural sedation in outpatient or inpatient settings.
Respiratory Therapy: In patients undergoing respiratory therapy, such as non-invasive ventilation or high-flow nasal cannula therapy, the disposable end tidal CO2 adapter can be used to monitor respiratory status and gas exchange. They facilitate the connection between the patient interface device and the capnography monitor, enabling real-time monitoring of EtCO2 levels during therapy.
An end tidal CO2 adapter is a precision-engineered device designed for integration with airway management tools such as endotracheal tubes and laryngeal mask airways. Its primary function is to facilitate the measurement of end-tidal carbon dioxide (EtCO2) levels in exhaled breath, enabling accurate assessment of a patient’s ventilation status. This capability is essential for effective real-time capnography in various clinical settings, including emergency medicine, anesthesia, and intensive care. The EtCO2 adaptor ultimately enhances patient safety and outcomes by providing critical insights into respiratory function, allowing healthcare professionals to identify and respond to respiratory issues promptly.
An end tidal CO2 adapter connects to airway management devices, capturing exhaled breath. It utilizes infrared sensors to measure carbon dioxide (CO2) levels in real-time. As air passes through, the EtCO2 adapter generates a capnographic waveform, displaying CO2 concentration throughout the respiratory cycle. This precise monitoring enables healthcare professionals to assess ventilation status, identify abnormalities, and make informed clinical decisions, ensuring optimal patient care in various medical settings.
The end tidal CO2 adapter plays a crucial role in respiratory monitoring by delivering real-time measurements of carbon dioxide levels in exhaled breath. This capability is essential for identifying hypoventilation or hyperventilation, allowing for prompt clinical interventions. By facilitating accurate assessments of ventilation, the EtCO2 adapter enhances patient safety and outcomes during anesthesia and critical care, supporting informed decision-making by healthcare professionals across various medical settings.
Yes, the EtCO2 airway adapter is compatible with non-invasive ventilation devices, allowing for effective monitoring of end-tidal carbon dioxide levels. This integration offers crucial insights into respiratory function, enhancing clinical assessments.
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