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A Compact Fully Electronically Tunable Memristive Circuit Based on CCCDTA with Experimental Results
Deniz Ozenli1,2
1Turkish Air Force Academy, Department of Electronics Engineering, National Defence University, 34334 Istanbul, Turkey.
Micromachines
|August 26, 2023
Summary
This study introduces a novel flux-controlled memristor emulator using a Current-Controlled Current Differencing Transconductance Amplifier (CCCDTA). The circuit offers adjustable operation modes and a high operating frequency, validated by advanced simulations and experimental testing.
Area of Science:
- Electronics
- Materials Science
- Non-linear Circuit Design
Background:
- Memristors are fundamental electronic components with memory properties.
- Developing efficient and tunable memristor emulators is crucial for circuit design and research.
- Existing emulators often require complex circuitry or mode-switching mechanisms.
Purpose of the Study:
- To propose and analyze a novel flux-controlled memristor emulator circuit.
- To demonstrate the circuit's ability to operate in different modes without topology changes.
- To validate the emulator's performance using advanced simulation and experimental methods.
Main Methods:
- Circuit design based on Current-Controlled Current Differencing Transconductance Amplifier (CCCDTA) and a grounded capacitor.
- Flux-controlled memristor emulation with adjustable invariant and variant parts.
- Monte Carlo and temperature analysis using TSMC 0.18 µm technology.
- Experimental validation using commercial components (ALD1116, AD844, LM13700).
Main Results:
- Achieved an operating frequency of up to 1.5 MHz.
- Demonstrated seamless switching between operation modes without circuit modification.
- Verified performance under varying conditions (Monte Carlo, temperature) and with commercial ICs.
- The proposed emulator exhibits superior performance characteristics compared to existing studies.
Conclusions:
- The developed flux-controlled memristor emulator offers a versatile and efficient solution.
- Its adjustable nature and high operating frequency make it suitable for advanced electronic applications.
- The circuit's robustness and workability are confirmed through comprehensive analysis and testing.
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