  The phenomenon of floating can be fascinating in any field, with its presence
seen in art, films, and scientific research. This phenomenon is a captivating
and pertinent subject with practical applications, such as Penning traps for
antimatter confinement and Ion traps as essential architectures for quantum
computing models. In our project, we reproduced the 1893 water bridge
experiment using glycerol and first observed that lump-like macroscopic dipole
moments can undergo near-periodic oscillations that exhibit floating effects
and do not need classical bridge form. By combining experimental analysis,
neural networks, investigation of Kelvin force generated by the Finite element
method, and exploration of discharging, we gain insights into the mechanisms of
motion. Our discovery has overturned the previous impression of a bridge
floating in the water, leading to a deeper understanding of the new trap
mechanism under strong electric fields with a single pair of electrodes.
