Hybrid Memristive Device with Multilevel-Modulated Electrical Conductance of Interfaced Atomically Thin 2D Materials and Molecular Oxides (2DPOMristor)

2DPOMristor项目旨在开发一种基于二维（2D）过渡金属二硫化物（TMDC）和分子金属氧化物（聚金属氧酸盐，POM）开关材料的固有和协同特性的概念性新记忆器件。由于它们能够在室温下表现出基于氧化还原的电导开关，POMs作为零维（0D）单分子或2D层将被用作调节2D- tmdc半导体的电阻特性的杠杆。微针电接触测量的实施应确保从基本的显微光谱研究有效地过渡到经济相关的设备，以发展具有成本效益的电子学。该项目将研究活动捆绑在面向技术的表面改性的截面上，通过使用湿化学和基于真空的方法，响应性有机-无机材料，扫描探针显微镜和电位感应开关，通过同步测量的外部电接触和计算化学。作为原理证明，将使用基于溶剂的喷墨技术实现具有溶液处理记忆单元的交叉棒阵列的2DPOMristor原型装置的3D打印。沿着价值链的项目的目标是达到技术准备级别4（在实验室中验证的技术）。

The project 2DPOMristor aims to develop a conceptually new memristive device based on intrinsic and synergetic properties of two-dimensional (2D) transition metal dichalcogenide (TMDC) and molecular metal-oxide (polyoxometalate, POM) switching materials. Because of their ability to exhibit redox-based conductance switching at room temperature, POMs as zero-dimensional (0D) single molecules or 2D layers will be used as leverage to modulate the resistive properties of 2D-TMDC semiconductors. The implementation of electrical contact measurements by micro needles should ensure an effective transition from fundamental microspectroscopic studies towards economically relevant devices for the development of cost-efficient electronics. The project bundles research activities at the cross-section of technologically oriented surface modification by responsive organic-inorganic materials using wet-chemical and vacuum-based methods, scanning probe microscopy and potential-induced switching, external electrical contacting by synchronized measurements, and computational chemistry. As a proof of principle, a 3D print of the 2DPOMristor prototype device with a crossbar array of solution-processed memristive cells will be realized by using a solvent-based inkjet technique. The ambition of the project along the value chain is to achieve the technology readiness level 4 (technology validated in lab).