Liquid metals attached to an anode in an electrochemical cell moves toward the cathode due to Marangoni forces since electrochemical oxidation of the metal lowers the interfacial tension of the metal. Yet, when the droplet reaches cathode, it wraps around the cathode but does not touch it despite the strong electrostatic attraction between the positively charged liquid metal and negatively charged cathode. The combination of electrochemical oxidation of the surface of the liquid metal anode and hydrogen production on the cathode prevents contact, thus avoiding a short-circuit between the two electrodes. Consequently, liquid metal continues to flow toward the cathode and surrounds it until finally the liquid metal completely detaches from the anode and transfers to the cathode. Such manipulation depends on the distance between cathode and liquid metal; only the closest droplet will detach and transfer. During this process, the liquid can adopt surprising shapes that resemble tentacles due to the low tension of the metal. We demonstrate and characterize the unique ability to detach and transfer liquid metal in a non-contact manner with a low applied voltage.