In this study, a facile magneto-mechanical drawing method has been used to prepare magnetic composite microfibers.
With the controlled programming of supramolecular interactions, it would allow the facile tuning of mechanical strength.
In biointegrated electronics, the facile control of mechanical properties such as softness and stretchability in electronic devices is necessary to minimize the perturbation of motions inherent in biological systems1,2,3,4,5.
To address this conflicting issue, here we describe a novel ternary nanocomposite of Si/Co-CoSi2/reduced graphene oxide (rGO) made using a facile process of mechanical mixing of Si nanoparticles, Co3O4 microparticles, and rGO nanosheets, followed by carbothermal reduction.
These excellent features, such as facile preparation, high mechanical stability, high adsorption capacity, and simple reactivation, make them potential adsorbent for the treatment of the heavy metal-contaminated water.
In this work, we attempted to mix and use CNTs and AgNWs as conductive materials and transfer CNT/AgNW hybrids on flexible polyethylene terephthalate (PET) film and then form CNT/AgNW-PET films by a facile two-step mechanical pressing technique.
With a facile calendering process, the mechanical properties, bulk conductivity, and the pore distribution of the flexible graphene@S-CNT electrodes were tuned.
Nanostructured Sn Ti C composites have been synthesized by a facile, inexpensive high energy mechanical milling process and investigated as an anode material for lithium-ion cells.
Despite the great success have been achieved, the most facile and straightforward method (mechanical mixing and calcination) have been ignored.
