For many drugs, however, conventional laboratory synthesis results in a mixture of enantiomers.
In contrast, more commonly used room-temperature synthesis results in particles that form irregular agglomerations.
Thirdly, low temperature synthesis results in highly dense material, which further contributes to good connectivity.
Synthesis results for a small set of examples are provided.
In addition, its hardware architecture and synthesis results are presented.
Such unfavourable statistics made it especially challenging, yet critically important, to independently confirm heavy-element synthesis results.
Using these multipliers the applicability of the analysis and synthesis results are greatly extended.
Sketching the synthesis results as visual kinematic chains is helpful for the creative design of mechanisms.
Details about the hardware implementation are provided, as well as synthesis results.
In addition, synthesis results are presented for a lightweight configuration of this architecture platform.
FPGA synthesis results are presented and compared against a traditional VHDL-based design flow.
