Bulanık Mantık Tasarımcısı ile Memristor Histerezis Eğrisinin Tahmini

Year 2022, , 64 - 72, 25.04.2022

İshak Parlar , Mehmet Nuri Almalı , Ali Can Çabuker

https://doi.org/10.53433/yyufbed.1070358

Abstract

Bu çalışmada memristör taklit devresi olarak doğrusal, katkılı sürüklenme TiO2 modeli kullanılarak bulanık mantık tasarımcısı aracı ile memristör histerezis eğrisinin tahmin edilebilir bölgesinin optimize edilmesi amaçlanmıştır. Bu model kullanılarak memristör karakteristiğinin akım-gerilim (I-V) eğrisi yani histerezis döngüsü oluşturulmuştur. Analog uygulama çalışmalarında özellikle filtre devrelerinde belirli bir frekans aralığında histerezis döngüsünü elde edebilmek filtrenin kalitesinde önemli değişikliklere yol açmaktadır. Bu noktada en uygun parametre noktaları için çeşitli deneme yanılma testleri yapıldı. Burada, optimum histerezis döngü parametreleri, bulanık mantık tasarımcısı kullanılarak belirlendi. Sonuç olarak akım-voltaj ve frekans bilgisine bağlı olarak optimum histerezis döngüsü hakkında daha pratik ve daha kararlı sonuçlar elde edildi. Bu sayede kullanıcılar istenilen amaca ve ihtiyaca göre parametreleri belirleyerek daha öngörülebilir tepkiler alabilmektedir. Özellikle analog ve digital elektronik uygulama çalışmalarında hem zaman kaybını hem de çalışılabilir bölgeyi rahat belirleyerek sonuca daha kararlı yaklaşabilmektedirler.

Keywords

Lineer dopant drift TiO2 modeli, Histerezis döngüsü, Bulanık mantık tasarımcısı, Analog devre uygulamaları, Akım-gerilim (I-V) eğrisi

Estimation of Memristor Hysteresis Curve with Fuzzy Logic Designer

Abstract

In this study aimed to optimize the predictable region of the memristor hysteresis curve with the fuzzy logic designer tool by using the linear, doped drift TiO2 model as a memristor emulation circuit. Using this model, the current-voltage (I-V) curve of the memristor characteristic, that is, the hysteresis loop was created. In analog application studies, especially in filter circuits, being able to obtain a hysteresis loop in a certain frequency range leads to significant changes in the quality of the filter. At this point, various trial and error tests were performed for the most suitable parameter points. Here, the optimum hysteresis loop parameters were determined using a fuzzy logic designer. As a result, more practical and more stable results were obtained about the optimum hysteresis loop depending on the current-voltage and frequency information. In this way, users can get more predictable responses by determining the parameters according to the desired purpose and need. Especially in analog and digital electronic applications, they can approach the result more decisively by determining both the time loss and the workable area easily.

Keywords

Linear dopant drift TiO2 model, Hysteresis loop, Fuzzy logic designer, Analog circuit applications, Current-voltage (I-V) curve

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