Electric field-induced chemical locomotion of conducting objects
Citations Over TimeTop 1% of 2011 papers
Abstract
Externally triggered motion of small objects has potential in applications ranging from micromachines, to drug delivery, and self-assembly of superstructures. Here we present a new concept for the controlled propulsion of conducting objects with sizes ranging from centimetres to hundreds of micrometres. It is based on their polarization, induced by an electric field, which triggers spatially separated oxidation and reduction reactions involving asymmetric gas bubble formation. This in turn leads to a directional motion of the objects. Depending on the implied redox chemistry and the device design, the speed can be controlled and the motion can be switched from linear to rotational. This type of chemical locomotion is an alternative to existing approaches based on other principles.
Related Papers
- → Evaluation of time-based ranging methods: Does the choice matter?(2017)13 cited
- → Performance Comparison of Asynchronous Ranging Algorithms(2009)13 cited
- → Ranging-Aided Ground Robot Navigation Using UWB Nodes at Unknown Locations(2022)4 cited
- → An Original Correction Method for Indoor Ultra Wide Band Ranging-based\n Localisation System(2016)4 cited
- → Ranging Sensor Fusion in LISA Data Processing: Treatment of Ambiguities, Noise, and On-Board Delays in LISA Ranging Observables(2023)