Progress in Analytical Solutions for High Order Harmonic Generation in Semiconductor Superlattice Multipliers
Abdullah Al-Ateqi, Mauro Fernandes Pereira

TL;DR
This paper introduces a modified logistic function as a new analytical ansatz for modeling high-order harmonics in semiconductor superlattices, effectively balancing accuracy and noise reduction, and advancing nonlinear device analysis.
Contribution
A novel modified logistic function ansatz that accurately models high-order odd and even harmonics in SSLs while eliminating numerical noise.
Findings
Preserves high-order odd harmonics up to the 50th order.
Eliminates numerical noise present in previous models.
Provides a more efficient analytical approach for SSL modeling.
Abstract
In this study, we address the limitations of previous solutions for modeling high-order harmonics in semiconductor superlattices (SSLs). Earlier research proposed a step function ansatz that effectively modeled high-order even and odd harmonics but introduced numerical noise. An upgrade using a logistic function addressed the noise problem but eliminated high-order odd harmonics. To overcome both limitations, we examined the impact of the y-intercept value in the discontinuity of the step function and proposed a modified logistic function as a new ansatz. The modified logistic function delivers accurate results, preserving high-order odd harmonics up to the 50th order similar to the previous ansatz while also eliminating numerical noise. This research contributes to a more efficient and robust analytical approach for modeling SSLs, notably by avoiding time-consuming numerical solutions…
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Taxonomy
TopicsRadio Frequency Integrated Circuit Design · Superconducting and THz Device Technology · Microwave Engineering and Waveguides
