Cuff Pressure Modulation
Cuff Pressure Modulation - Related Videos
08:54
Measuring Blood Pressure in Mice using Volume Pressure Recording, a Tail-cuff Method
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Cited by 175 •
2009
The CODA 8-Channel High Throughput Non-Invasive Blood Pressure system measures the blood pressure in up to 8 mice or rats simultaneously. This tail-cuff system uses Volume Pressure Recording (VPR) to measure the blood pressure by determining the tail blood volume.
06:01
Modulating Shape of Polyester Based Polymersomes using Osmotic Pressure
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Cited by 5 •
2021
Polymersomes are self-assembled polymeric vesicles that are formed in spherical shapes to minimize Gibb's Free Energy. In the case of drug delivery, more elongated structures are beneficial. This protocol establishes methods to create more rod-like polymersomes, with elongated aspect ratios, using salt to induce osmotic pressure and reduce internal vesicle volumes.
13:19
Mouse Model for Pancreas Transplantation Using a Modified Cuff Technique
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Cited by 6 •
2017
Among abdominal solid organ transplantation, pancreatic grafts are prone to develop severe ischemia reperfusion injury-associated graft damage, leading eventually to early graft loss. This protocol describes a model of murine pancreas transplantation using a non-suture cuff technique, ideally suited for analyzing these early, deleterious damages.
07:26
Synthesis and Microdiffraction at Extreme Pressures and Temperatures
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Cited by 5 •
2013
The laser heated diamond anvil cell combined with synchrotron micro-diffraction techniques allows researchers to explore the nature and properties of new phases of matter at extreme pressure and temperature (PT) conditions. Heterogeneous samples can be characterized in situ under high pressure by 2D mapping and combined powder, single-crystal and multigrain diffraction approaches.
07:51
Implantation of a Carotid Cuff for Triggering Shear-stress Induced Atherosclerosis in Mice
0 Views •
Cited by 30 •
2012
The constricting cuff presented in this article is designed to induce atherosclerosis in the murine common carotid artery. Due to the conical shape of its inner lumen the implanted cuff generates well-defined regions of low, high and oscillatory shear stress triggering the development of atherosclerotic lesions of different inflammatory phenotypes.
FAQs
The cuff must generate enough pressure to maintain contact with the airway wall, supporting ventilation and limiting leakage or aspiration. However, excessive pressure can compromise the surrounding tracheal mucosa and contribute to ischemia or tissue damage. Cuff Pressure Modulation therefore treats sealing and tissue protection as competing goals that require ongoing pressure assessment rather than a fixed inflation setting.
Changes in airway pressure or ventilation conditions can alter how effectively the cuff seals around an endotracheal or tracheostomy tube. A pressure that previously limited leakage may become insufficient, while excessive inflation can continue to expose the tracheal tissue to harmful pressure. Monitoring allows clinicians to adjust the cuff as respiratory support conditions change.
Tube position affects how the cuff contacts the airway and can change the quality of the seal. When the position changes, the existing inflation may no longer provide the intended balance between leakage prevention and tissue protection. Clinicians therefore reassess cuff pressure after relevant positional changes and modify inflation when needed to maintain airway management goals.
Clinicians use a manometer to monitor pressure within the airway device cuff, then adjust inflation according to the observed seal and current airway conditions. The process is repeated when ventilation requirements, airway pressure, or tube position changes. This pressure-guided approach helps avoid relying on an unchanged inflation state when the clinical circumstances affecting the cuff have shifted.
Cuff Pressure Modulation is relevant whenever cuffed endotracheal or tracheostomy tubes support airway management. Its clinical context includes anesthesia, critical care, and emergency medicine, where ventilation, tube position, and airway pressure may change over time. In these settings, pressure monitoring supports a dependable airway seal while limiting avoidable pressure-related injury to tracheal tissue.
Appropriate adjustment can support reliable mechanical ventilation by limiting unwanted air leakage around the tube. It also helps reduce the risk of aspiration while avoiding excessive pressure associated with tracheal ischemia and tissue damage. The intended outcome is not maximal cuff inflation, but a pressure condition that preserves airway function while respecting the vulnerability of surrounding tissue.