Dielectric behaviour of magnetic hybrid materials.

DFG优先计划框架内的拟议继续是基于当前阶段2016-2017年的结果。其中最重要的研究成果之一包括用于制造复杂磁活性聚合物元件的6维打印工艺的概念。计划在新阶段（2018-2019）的框架内继续这项研究，目标是自动打印磁致活性聚合物（MAP）器件。为此，需要精确地控制磁性颗粒在聚合物基质内的分散密度梯度。为此，6D打印工艺的进一步发展将继续和扩大。Monkman研究小组的初步调查表明，MAP材料存在大量的频率依赖性。这些光谱研究旨在进一步阐明可能的传感器应用。为了这些目的，它旨在覆盖尽可能多的电磁频谱（从MHz到UV）。这两个研究方向的结合将打开大门，新的和复杂的传感器和执行器元件适用于inrobot系统的应用。使用6D打印的聚合物中颗粒的几何分布已经导致了磁活性驻极体的发明-一种能够在一个元件中组合磁粘附和电粘附的多种功能的设备。

The proposed continuation within the framework of the DFG priority program is based on the results emanating from the current phase 2016-2017. One of the most important research resultscomprises the conception of a 6 dimensional printing process for the fabrication of complex magnatoactive polymer elements. It is intended to continue this research within the framework of the new Phase (2018-2019) with the goal of automatically printing magnetoactivepolymer (MAP) devices. For this it is necessary to precisely control the dispersion density gradient of the magnetic particles within the polymer matrix. To these ends further development of the 6D printing process will be continued and expanded. Initial investigations by theresearch unit Monkman indicate a large number of frequency dependencies of MAP materials. These spectral investigations are intended to shed further light on possible sensor applications. Forthese purposes it is intended to cover as much of the electromagnetic spectrum as possible (from MHz through to UV). The combination of both these research directions will open the door to new and complexer sensor and actuator elements suitable for application inrobotic systems. The geometrical distribution of particles in the polymer using 6D printing has already led to the invention of the magnetoactive electret – a device capable of a number of functions including combined magnetoadhesion and electroadhesion in oneelement.