Original Philips Romote Event Marker 989803143411
Original Philips Remote Event Marker 989803143411. This genuine part guarantees flawless integration, durability, and optimal performance for Philips device control. A must-have for system reliability.
Philips 989803143411 is a high-precision clinical accessory designed to enhance data accuracy during patient monitoring. This remote event marker allows healthcare providers to manually timestamp significant clinical events directly onto the monitoring trend or diagnostic strip, ensuring a clear chronological record of patient care.
Technical Specifications
Part Number: 989803143411.
Device Type: Remote Event Marker (Push-button trigger).
Cable Length: Standard length for flexible bedside or procedure room positioning.
Connector Type: Proprietary Philips multi-pin connector for secure monitoring interface.
Design: Ergonomic, lightweight hand-held button with tactile feedback.
Durability: Medical-grade outer casing resistant to common clinical disinfectants.
Compatibility: Specifically engineered for use with Philips Avalon (Fetal Monitors) and high-end IntelliVue patient monitoring systems.
Primary Applications & Features
Fetal Monitoring (Avalon Series): Primarily used during Non-Stress Tests (NST) or labor monitoring, allowing the expectant mother or clinician to mark fetal movements or perceived contractions.
Diagnostic Precision: Enables clinicians to flag specific moments—such as the administration of medication, onset of symptoms, or patient position changes—for later review by physicians.
Seamless Integration: When pressed, the marker creates an immediate annotation on the electronic medical record (EMR) or the physical strip chart, eliminating manual logging errors.
Workflow Efficiency: The simple "one-click" operation allows nurses and technicians to document events without having to reach for the main monitor screen or central station.
Clinical Accuracy: Reduces ambiguity during retrospective data analysis by providing a definitive "point-of-interest" marker synced with real-time physiological waveforms.
