Furthermore, the comparative study of performance of all the TMFD systems shows that at resonating condition, the maximum reduction of mid-span displacement and mid-span acceleration responses is achieved with the use of optimized concentrated MTMFD systems, i.e., placing all the TMFD units at the mid-span of the bridge.
The results demonstrate that the proposed algorithm can save the encoding time dramatically with 31.37% under RA configuration and 34.45% under LDP configuration on average, where the maximum reduction of 37.21%("Johnny" at LDP condition) and the minimum reduction of 27.24% ("PeopleOnStreet" at RA condition), respectively.
The main result of the analysis of model (1 - 2) consists in defining conditions required for maximum reduction of the tumor load.
The model predicted maximum reduction capacity (55.96 mg/g) under the optimum conditions of Cr VI) concentration 65.7 mg/l; temperature 43 °C; pH 2; and dose 0.4 g/l, which was very close to the experimental value (55.18 mg/g) determined in batch experiment and about 32% higher than the experimentally determined un-optimized reduction capacity (42.39 mg/g).
Hence, five different trials were performed with different proportions of water hyacinth, sawdust and cattle manure and the best proportion of these materials was evaluated for achieving maximum reduction of lignin, cellulose and hemicellulose under ideal conditions.
The pH level was lower (acidic condition) in the fungal treatment and maximum reduction of COD and turbidity was observed (at lower pH).
The maximum reduction was observed in swing treatment under the dry condition group.
The equivalence ratio was varied from 0.75 to 2. It was found that the reduction of NO varies with temperature and that for a given temperature, the maximum reduction of NO occurs slightly fuel-rich of stoichiometric conditions.
A maximum reduction in surface tension was obtained under the optimal conditions of 16.55 g/l glucose concentration, 39.03 °C, 55.05 g/l total salt concentration and medium pH 7.37.
We also adapted the buffer conditions of this enzyme to ensure the maximum reduction of contaminating bovine and human DNA in Taq polymerases and primers without reducing PCR sensitivity and efficiency.
