An optimal scheme was obtained, by which 13.15% of the net weight of the reactor coolant system is reduced.
From points of views of technical feasibility, obtained triangularity (δx) and weight of the reactor, the slim-CS is selected as the candidate for DEMO at JAERI.
In this laboratory study, the thermal inertia could be determined experimentally, as the difference between the instantaneous rate of heat generated by reaction (the change in weight of the reactor measured by a load cell multiplied by the molar heat of reaction) and the heat transferred (measured by the cooling water flowrate and its change in temperature).
These results are then used as boundary conditions to estimate the catalyst weights in each reactor via simulations conducted using a one-dimensional pseudo-homogeneous reactor model.
Char yields were calculated by the following equation: y_{text{c}} = frac{{M_{t,p} - M_{0,p} }}{M}; times ;,100,% (1 where M 0,p represents the weight of reactor with sand before experiments and M t,p refers to the weight of reactor including sand and char after experiments; M means the weight of coal sample used for the experiment.
Jute cloth sheets of 3-mm thickness saturated with water were placed at the bottom of each reactor, and the feed, in the form of 3 kg of salvinia (dry weight 250 g), was laid over it.
The molecular weight of the polyethylene reactor powders was around 1 × 105.
Parameters, having a great impact on the net weight of reactor coolant system, were picked out as the design variables by the sensitivity analyses, and were optimized by means of genetic algorithm.
This work addresses the problem of designing an on-line dynamic data processor to estimate and predict viscosity, conversion, and molecular weight of an alkyd reactor through discrete-delayed measurements of viscosity.
for the y-axis motion of each reactor.
