Fang Wang;Xinjian Zhang;Xin Chen;Shuying Lyu;Congzhou Chen;Xiaolong Shi
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引用次数: 0
摘要
传统计算机发展缓慢,促使人们寻找新材料来替代硅基计算机。以分子为计算基础的生物计算机具有高度的并行性和信息能力,备受关注。在这项研究中,我们设计了一种基于 DNA 链位移机制的 NAND 逻辑门。通过级联所提出的 NAND 逻辑门,我们组装了一个分子计算模型--4 线-2 线优先编码器逻辑电路。将不同浓度的输入 DNA 链加入系统中,通过 DNA 杂交和链位移产生相应的输出。因此,它实现了优先编码器的功能。仿真结果验证了本研究提出的分子 NAND 逻辑门和优先编码系统的有效性和准确性。该电路的独特之处在于只级联了一种逻辑门,这为后续开发复杂的 DNA 级联电路、实现信息的逻辑编码功能提供了有益的探索。
The slow development of traditional computing has prompted the search for new materials to replace silicon-based computers. Bio-computers, which use molecules as the basis of computation, are highly parallel and information capable, attracting a lot of attention. In this study, we designed a NAND logic gate based on the DNA strand displacement mechanism. We assembled a molecular calculation model, a 4-wire-2-wire priority encoder logic circuit, by cascading the proposed NAND gates. Different concentrations of input DNA chains were added into the system, resulting in corresponding output, through DNA hybridization and strand displacement. Therefore, it achieved the function of a priority encoder. Simulation results verify the effectiveness and accuracy of the molecular NAND logic gate and the priority coding system presented in this study. The unique point of this proposed circuit is that we cascaded only one kind of logic gate, which provides a beneficial exploration for the subsequent development of complex DNA cascade circuits and the realization of the logical coding function of information.
期刊介绍:
CJE focuses on the emerging fields of electronics, publishing innovative and transformative research papers. Most of the papers published in CJE are from universities and research institutes, presenting their innovative research results. Both theoretical and practical contributions are encouraged, and original research papers reporting novel solutions to the hot topics in electronics are strongly recommended.