Further, system simulation showed that compared to the conventional CO2 HP, the hybrid CO2 HP can reduce electricity consumption by 13.7%.
The system simulation shows that the detection range is up to 6.7 km for 1 m/s wind velocity error at a wind velocity of 15 m/s with laser energy of 250 mJ and telescope diameter of 406 mm.
Our system level simulations show that by switching to uplink heavy subframe configuration, the performance of the system cell can be improved significantly.
The main application of these techniques are the non-minimum phase systems, therefore, simulations show the effectiveness of the proposed techniques in this kind of systems.
System-level simulations show that our schemes enhance the throughput of macrocell users while maintaining a high performance for femtocell users compared to a conventional power allocation.
Our analysis and system-level simulations show that the proposed load balancing algorithm significantly improves the equilibrium extent and network stability as compared to the baseline algorithms.
System-level simulations show that, even with the associated connection delays, the macro-assisted energy-saving schemes can yield energy savings of more than 45%% while at the same time introduce throughput gains of up to 25%%.
For these systems our simulations show that the prediction of the solvation (or disjoining) pressure when the chemical potential is kept fixed is different from that obtained when the total density is fixed.
This sensory-motor map is used to design a simple 1D tracking system and several simulations show how the method can be used to control tracking performance using such metrics as overshoot and settling time.
