This work describes the optimization of the recently proposed fluid management methodology single interface flow analysis (SIFA) using chemometrics modelling.
Fourthly, this was a retrospective study; whether the total amount of fluid infused could be decreased and whether more efficient resuscitation could be achieved using the proposed fluid management model still require further validation.
Several studies have proposed fluid intake regimes for miners and outdoor workers, [ 1, 12, 22] but to our knowledge no follow up studies have been conducted to assess their effectiveness.
The proposed Fluid-based Aerodynamic Modification (FAM) approach is fundamentally different: instead of re-shaping the solid material to improve the aerodynamic 'shape' of the structure, fluid-based active flow control is used to manipulate the separating boundary layer in order to improve the building׳s aerodynamic performance and thus reduce the wind excitation.
The work is more characteristic in its slow, unyielding tempo, and so its sense of an inexorable clock, against which the musical gestures may propose more fluid and human ways of telling time.
We propose that fluid with high aspect ratio pores exists there, as proposed by Matsubara et al. (2004, 2009) based on the result of Takei (2002).
We propose that fluid transport models at other spatial scales can be constructed in a generalised core shell framework, in which the core accounts for the biophysical effects of fluid transport whilst the shell reflects the regulatory mechanisms.
Therefore, we propose that fluid overload could be defined as an independent single entity - equivalent to a biomarker - with the potential to be introduced for intervention guidance.
Using this distinction he proposed that fluid movement across microvessel walls can be described as net filtration or reabsorption of a fluid composed of water and crystalloids driven by the differences of the hydrostatic pressure and the osmotic pressure of the colloids.
In 1953, Hubbert (1953) proposed the fluid potential concept in order to describe energy changes and migration rules of underground fluids.
