Genetic-algorithm optimization of dipole equivalent-circuit models
✍ Scribed by B. R. Long; P. L. Werner; D. H. Werner
- Publisher
- John Wiley and Sons
- Year
- 2000
- Tongue
- English
- Weight
- 94 KB
- Volume
- 27
- Category
- Article
- ISSN
- 0895-2477
No coin nor oath required. For personal study only.
✦ Synopsis
In this paper, we use a genetic-algorithm GA technique to optimize equi¨alent-circuit models of an antenna system. Two broadband equi¨alent-circuit models with component ¨alues are optimized by use of the genetic algorithm. The first is a con¨entional RLC network, while the second introduces a new technique that makes use of transmission-line segments as well as lumped components. Both equi¨alent circuits exhibit good impedance fidelity o¨er a bandwidth exceeding fi¨e octa¨es, including the fundamental through the fourth o¨ertone response.
📜 SIMILAR VOLUMES
## An equi¨alent circuit model of injection-locked laser diodes is proposed. The model pro¨ides an easy way of analyzing injection-locked laser diodes through circuit simulation. The model is ¨erified by studying the response of an injection-locked laser diode to direct square-wa¨e modulation.
A Genetic Algorithm (GA) is described, which produces solutions to the cost optimization problem of reinforcement layout for reinforced soil slopes. These solutions incorporate di!erent types of reinforcement within a single slope. The GA described is implemented with the aim of optimizing the cost
To obtain the maximum output power of a copper ¨apor laser, the LC parameter configuration of a discharge circuit is optimized by applying a genetic algorithm. The optimized LC parameter configuration is found to be C s 7.26 nF, C s 6.74 nF, L s 1.28 H, and d p d L s 0.32 H. The laser power has been
much higher in conversion efficiency using only one active device compared with the frequency multiplier approach, and it is much simpler in circuitry compared with the dual-loop approach. VCOs are able to be cascaded to realize a very high-frequency synthesizing source by employing a low PLL synthe