基于高斯无序有机场效应晶体管迁移学习的神经紧凑模型

IF 5.7 2区 材料科学 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Minsun Cho, Marin Franot, O-Joun Lee and Sungyeop Jung
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引用次数: 0

摘要

我们提出了一种采用深度神经网络开发晶体管紧凑模型(即神经紧凑模型)的方法,其中包括迁移学习,以提高精度并缩短模型开发时间。当神经网络所需的电气数据稀缺且成本高昂,以及需要建模的电气特性高度非线性时,我们研究了这种方法的有效性。通过使用计算机辅助设计模拟技术,我们构建了一个具有高斯无序有机场效应晶体管的电气特性数据集,该晶体管的电流-电压曲线呈现高度非线性。随后,我们通过修改传统的深度学习模型开发了神经紧凑模型,并通过各种实验验证了迁移学习与测试的有效性。我们的研究表明,具有迁移学习功能的神经紧凑模型能以更短的训练时间达到同等精度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

A neural compact model based on transfer learning for organic FETs with Gaussian disorder†

A neural compact model based on transfer learning for organic FETs with Gaussian disorder†

A neural compact model based on transfer learning for organic FETs with Gaussian disorder†

We present an approach to adopt deep neural networks for the development of a compact model for transistors, namely a neural compact model, including transfer learning to enhance accuracy and reduce model development time. We examine the effectiveness of this approach when the electrical data for neural networks is scarce and costly and when the electrical characteristics to be modeled are highly non-linear. By using technology computer-aided design simulations, we constructed a dataset of the electrical characteristics of organic field-effect transistors with Gaussian disorder that exhibit highly non-linear current–voltage curves. Subsequently, we developed neural compact models by modifying conventional deep learning models and validated the effectiveness of transfer learning with testing through various experiments. We showed that the neural compact model with transfer learning provides an equivalent accuracy at a significantly shorter training time.

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来源期刊
Journal of Materials Chemistry C
Journal of Materials Chemistry C MATERIALS SCIENCE, MULTIDISCIPLINARY-PHYSICS, APPLIED
CiteScore
10.80
自引率
6.20%
发文量
1468
期刊介绍: The Journal of Materials Chemistry is divided into three distinct sections, A, B, and C, each catering to specific applications of the materials under study: Journal of Materials Chemistry A focuses primarily on materials intended for applications in energy and sustainability. Journal of Materials Chemistry B specializes in materials designed for applications in biology and medicine. Journal of Materials Chemistry C is dedicated to materials suitable for applications in optical, magnetic, and electronic devices. Example topic areas within the scope of Journal of Materials Chemistry C are listed below. This list is neither exhaustive nor exclusive. Bioelectronics Conductors Detectors Dielectrics Displays Ferroelectrics Lasers LEDs Lighting Liquid crystals Memory Metamaterials Multiferroics Photonics Photovoltaics Semiconductors Sensors Single molecule conductors Spintronics Superconductors Thermoelectrics Topological insulators Transistors
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