Multi-Energy Battery System and Method of Use

    公开(公告)号:US20240339672A1

    公开(公告)日:2024-10-10

    申请号:US18627552

    申请日:2024-04-05

    申请人: Brandi Reed

    发明人: Brandi Reed

    IPC分类号: H01M10/36 H01M10/46 H02J7/00

    摘要: A multi-energy battery system that can be powered by multiple sources is disclosed. The system includes at least one cathode and at least one anode, separated by a selective membrane that prevents short circuits and controls ionic flow. The system is encased in a sealed housing and uses saltwater as an electrolyte, enabling efficient ion movement and electricity production. The system includes multiple energy connection ports for interfacing solar panels and external devices. An integrated control module manages charging, preventing overcharging and overheating. The battery system can be scaled with multiple cathodes and anodes to meet diverse power needs and includes a rechargeable battery for storing additional electric power.

    Battery cell apparatus and system and method of use

    公开(公告)号:US12107242B2

    公开(公告)日:2024-10-01

    申请号:US17972685

    申请日:2022-10-25

    申请人: Paul Kajmo

    发明人: Paul Kajmo

    摘要: A battery cell, driven by heat, having a reservoir containing a redox couple electrolyte comprised of paramagnetic and diamagnetic ions. A magnet with a pole, projecting a non-uniform magnetic field unto the electrolyte, the magnetic field having a strong magnetic field area proximal to the magnetic pole and a weak magnetic field area distal to the magnetic pole. A positive electrode is placed in the strong magnetic field area and a negative electrode is placed in the weak magnetic field areas of the electrolyte. Ionic separation occurs as the paramagnetic ions drift to the strong magnetic field area, and the diamagnetic ions are repulsed from the magnetic pole and drift to the weak magnetic field area, causing voltage potential across the positive and negative electrodes. A circuit placed across the positive and negative electrodes of the battery draws electrons from the diamagnetic ions through the negative electrode and the electrical circuit to the positive electrode and into the paramagnetic ions. Paramagnetic ions in the strong field area reduce into converted diamagnetic ions as the paramagnetic ions receive electrons through the positive electrode, the converted diamagnetic ions repelled by the magnetic pole drift to the weak magnetic field area. Additionally, diamagnetic ions proximal to the weak magnetic field area oxidize into converted paramagnetic ions as the diamagnetic ions lose electrons through the negative electrode, the converted paramagnetic ions attracted to the magnetic pole drift to the strong magnetic field area.