To prevent this physical damage a computer-controlled pressure-release system was developed that regulates a relative pressure release.
Inflation of the cuff and its release were synchronized to the MR acquisition using an automatically paced air pressure and release system.
The value is used during the planning of protective measures like pressure release or suppression systems.
Removing CO2 from the system by pressure release results in precipitation of the ferrocene, so that it can be recovered from the ionic liquid phase.
Pressure release by an integrated bypass system allowed continuation of culture.
Simulation results underscore the importance of pressure control during changes in porous media permeability caused during cell growth and changes in internal scaffold architecture, which was solved by an internal bypass system for pressure release.
A simulation of simultaneous bubble nucleation and growth was performed for a batch physical foaming process of polypropylene (PP /CO2 system under finite pressure release rate.
Opening the bypass system results in pressure release, and pressure values in the upper and lower part of the culture chamber adjust to a pressure difference of about 3.3 Pa, as seen here in Figure 3 d) for the simulation with the lowest scaffold permeability 5 ∗ 10−13.
This conjunction enables pressure release in case the pressure in the perfusion system is too high.
Pressure release means the emission of materials resulting from the system pressure being greater than the set pressure of the pressure relief device.
Indeed, the association of active control with a porous material allows the active system to be reduced in complexity to a simple active pressure release.
