Evolving Fluid Management Practices
PROPER FLUID MANAGEMENT MAY IMPROVE CLINICAL OUTCOMES AND HELP REDUCE COSTS1-4
Intravenous (IV) fluids are among the most commonly used interventions for hospitalised patients, yet one in five patients on IV fluid therapy suffers complications because fluids were inappropriately administered.5 The Starling system takes the guesswork out of fluid decisions with dynamic assessments to accurately identify whether or not an individual patient is fluid responsive.
FLUID RESPONSIVENESS IS DYNAMIC
Every patient has unique and constantly changing fluid needs. More than 80% of hospitalised patients receive IV fluids.6 Yet studies show that giving too little or too much fluid can lead to serious complications and contribute to rising healthcare costs.7,8
IV fluids are drugs, and fluid administration is not a one-size-fits-all approach; fluids should be dosed according to a patient's response.9 Assessing whether fluid is the right intervention and whether it may help or harm a patient is a critical step in optimising treatment for the individual patient. The Starling system can accurately aid clinical staff in determining whether a patient will benefit from IV fluids, in a 100% non-invasive way.
Starling’s advanced technology addresses the dynamic and real-time needs of fluid monitoring.
IV fluids may cause harm.
Fluid is an important predictor of mortality.10 Only ~50% of haemodynamically unstable patients will respond to IV fluid by increasing cardiac output and subsequent perfusion.11
Fluid responsiveness is dynamic.
Fluid status changes continuously. Using only blood pressure, urine output and heart rate to measure fluid responsiveness may provide limited, delayed and inconclusive information.11,12
Real-time, accurate data is needed.
The Starling system provides a full haemodynamic profile within seconds — with 94% sensitivity and 100% specificity for predicting fluid responsiveness in critical care situations.13
PATENTED AND PROVEN BIOREACTANCE TECHNOLOGY
The Starling system uses advanced, patented Bioreactance technology to take measures continuously and precisely requiring only four easy-to-place sensors. The sensors may be placed anywhere on the chest or back as long as two are positioned above the heart and two are below the heart.14
The technology works by emitting a low level of electrical current across the thorax, measuring the time delay, or "phase shift," between the applied electrical current and the voltage in the thorax. These phase shifts correlate with the amount of pulsatile blood volume change in the thorax, enabling the stroke volume to be calculated.