The experimental results show that our interference analysis approach can improve the tightness of interference delays by 18.36% on average compared to Upper Bound Delay(UBD) approach, and the optimized bank-to-core mapping can achieve the WCET improvement by 8.93% on average.
So apparently, the well examined workhorse E. coli still bears some biocatalysts which are promising candidates for metabolic engineering approaches for the optimized production of bulk chemicals and that might be better suited than currently applied enzymes.
This paper considers these merits of caging and proposes an efficient approach to find the optimized finger positions for robust grasping under perception noises by measuring the quality of caging.
In our approach, to guarantee the optimized recovery performance, we alter the encoding structure with maintaining the parameters of rateless code, e.g., degree distribution.
So, GA-based approach can do the optimized decision and make the data processing have the fastest execution efficiency and minimum cost.
For quinic acid bearing molecules, the approach was optimized for the detection of m/z 191 [quinic acid-H+] and a similar method was used for the other molecules herein.
Several numerical examples are presented to demonstrate the effectiveness of the proposed approach, which show that the optimized truss topologies obtained using the proposed approach are stable.
In order to assess the potential of the approach, an optimized CFRP testing machine is compared to a state-of-the-art metal design.
AC contributed to develop and test the approach; implemented, optimized and applied it to the data in the GPKB, obtaining and validating the here illustrated results, and contributed to write this manuscript.
Compared with the optimal ionic liquid-based heating extraction (ILHE), marinated extraction (ILME), ultrasonic-assisted extraction (ILUAE), the optimized approach of ILMAE gained higher extraction efficiency which is 4.879 mg/g in S. chinensis with RSD 1.33% and 171.82 mg/g in Flos Sophorae with RSD 1.47% within the shortest extraction time.
