Design and Simulation of Balanced Ternary Priority Encoder

Aadarsh Ganesh Goenka , Shyamali Mitra , Harsh Maheshwari , Nibaran Das
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Abstract

The priority encoder is a frequently used circuit in binary logic and is mostly used for interrupt handling and other priority resolving tasks. On the other hand, Ternary computing has tremendous potential for handling a wide variety of functions involving large range of numbers, whereas, the literature is confined to very basic functions. The proposed balanced priority encoder circuit that uses three logic symbols i.e. 1,0 and 1. In this study, we develop the design and architecture of a Ternary Priority Encoder circuit with an estimation of its time complexity. The intricacy of the circuit under consideration is supposed to highlight the capabilities of the ternary logic system. The flexibility of the circuit lies in its implementation using simple binary counterparts. As there is no simulator available for Ternary Logic, we have developed a Balanced Ternary Logic Simulator which is freely available from https://github.com/Aggtur11/Ternary-Logic-Simulator. The logic behaviour of the proposed priority encoder circuits is verified using the developed simulator.

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平衡三元优先编码器的设计与仿真
优先级编码器是二进制逻辑中经常使用的电路,主要用于中断处理和其他优先级解析任务。另一方面,三元计算在处理涉及大量数字的各种函数方面具有巨大潜力,而相关文献却仅限于非常基本的函数。在本研究中,我们开发了三元优先级编码器电路的设计和架构,并估算了其时间复杂度。我们所考虑的电路的复杂性旨在突出三元逻辑系统的能力。电路的灵活性在于使用简单的二进制对应电路来实现。由于三元逻辑没有模拟器,我们开发了一个平衡三元逻辑模拟器,可从 https://github.com/Aggtur11/Ternary-Logic-Simulator 免费获取。我们使用开发的模拟器验证了拟议优先级编码器电路的逻辑行为。
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