GE Dash 3000

The GE Dash 3000 is a high-performance, multi-parameter patient monitoring system designed for use in critical care environments. With its advanced technology, flexible configuration options, and ease of use, the Dash 3000 delivers accurate, real-time monitoring of vital signs, supporting healthcare providers in delivering optimal care.

Key Features:

• Multi-Parameter Monitoring: Provides continuous, accurate monitoring of vital signs such as ECG, SpO2, NIBP, temperature, invasive blood pressure (IBP), CO2, and more, ensuring comprehensive patient assessment.
• Large, High-Resolution Display: The 15-inch color touchscreen provides a clear and intuitive interface for viewing waveforms, vital signs, and alarms, enhancing clinical decision-making.
• Modular and Scalable: The GE Dash 3000 offers a modular design, allowing for customizable configurations and easy expansion to meet the evolving needs of the healthcare setting.
• Advanced Alarm Management: Configurable alarm settings with both visual and audible alerts ensure that healthcare professionals can respond promptly to any significant changes in patient conditions.
• Seamless Integration: Fully integrates with the GE Dash Network and other hospital-wide systems, allowing for real-time data sharing, centralized monitoring, and improved clinical collaboration.
• Portable Design: Compact and lightweight, the Dash 3000 can be easily moved between patient rooms, operating theaters, and mobile care units, making it ideal for dynamic clinical environments.

Applications:
The GE Dash 3000 is ideal for use in intensive care units (ICUs), emergency departments, operating rooms, recovery areas, and other high-acuity clinical settings, where real-time, reliable monitoring is critical to patient care.

Why Choose GE Dash 3000?
With its cutting-edge features, flexible design, and intuitive interface, the GE Dash 3000 is a trusted solution for hospitals and healthcare providers seeking advanced, scalable patient monitoring. Its ability to monitor a wide range of parameters with precision makes it a valuable asset in critical care environments.