We compare both models to small scale laboratory experiments.
Physically-based material models permit the use of small scale laboratory tests to characterise and validate their parameters.
Furthermore, our dimensionless framework allows us to predict the response time scales for a range of applications including small scale laboratory problems and large scale field problems.
Results from the simulation are presented and compared with experimental ones obtained on a full scale air heater and a small scale laboratory one.
While many of these innovations have demonstrated promising outcomes in a small scale, laboratory settings, validation of these for their practical viability must be substantiated.
Running simulation at large spatial scales however presents additional challenges, largely because reaction parameters in literature are mostly measured in relatively small scale laboratory systems at the spatial scale of 100 102 cm.
To form more definite conclusions on the proper units to be included in the waste treatment plant, certain small scale laboratory studies were necessary, including sludge digestion and activated-sludge treatment.
To validate this concept, a small scale laboratory investigation was carried out by blending 40/60 penetration grade bitumen with various proportions of one type of cooking oil and conducting dynamic shear rheometer frequency sweeps at a range of temperatures.
Using a simple, small scale laboratory version of the polymerization part of this process which permits contact with air and evaporative losses, the effects of varying the heat input and the initiator concentration were explored.
Based on research and the comparison on the method of other existing models of pressure swing absorption molecular sieve nitrogen generator, through a small scale laboratory test, a comparison on the different processes, different adsorption media was conducted to determine the best process.
In this work, small scale laboratory experiments were used to determine the influence of physical and chemical factors (i.e. solution ionic strength, particle size, surface flow rate, and vegetation type) on the surface transport and removal of colloids in a dense vegetation system without drainage.
