From the analyzed data, we verified that the rotational flow has potential to manipulate micro-objects precisely in 3D space.
This device can be used as an efficient tool for precisely and individually manipulating biological micro-objects that are typically transparent and flexible.
Lee et al. manipulated multiple micro-objects using twin bubbles attached to a rod [22], and Chung et al. and Rogers et al. focused on manipulating a single object using acoustically oscillating bubbles [17, 23, 24].
And with Ultrahaptics tech, users can manipulate these objects too.
WormMine enables users to query, save, and manipulate these objects, as well as download bulk data.
With such construction it can mimic the motion of Chinese chopsticks to manipulate a micro-object with a relatively large workspace and high precision.
Manipulating specific micro-objects (e.g., colloidal particles and microorganisms) precisely and selectively in liquid medium is of great importance in myriad engineering fields.
In this paper, we present an efficient methodology to manipulate a single micro-object using round-tip positive dielectrophoresis-based tweezers.
Thus, the results here are expected to be transferrable to these biological micro-objects.
This library allows the user to treat individual components of molecules as C++ objects, and provides various templated lists and vector classes for manipulating these objects.
