Metal air cell system
A metal air cell system is provided. The system includes a cathode having a pair of oxidant sides and anode sides. An anode is provided in two parts, each part having a side complementary each anode side of the cathode. A separator is disposed between the anode and cathode to electrically isolate the anode and the cathode. Electrolyte is disposed between the cathode and the anode, the electrolyte provided within the anode, separately at the interface between the cathode and the anode, or both within the anode and separately at the interface between the cathode and the anode. This configuration generally allows a single oxidant flow to be exposed to both portions of the cathode due to the central passage of the oxidant.
1. A metal air cell comprising:
a cathode having a pair of oxidant sides and anode sides;
a cartridge having a pair of inside surfaces for housing an anode, the anode provided in two parts, each part having a side complementary each anode side of the cathode, the cartridge further comprising a reservoir at an end opposite an insertion end, the reservoir having electrolyte or liquid therein; and
a separator between the anode and cathode to electrically isolate the anode and the cathode,
wherein an electrolyte is disposed between the cathode and the anode, the electrolyte provided within the anode, separately at the interface between the cathode and the anode, or both within the anode and separately at the interface between the cathode and the anode.
2. The metal air cell as in claim 1 , wherein the cathode is within a structure, the structure having a portion complementing the reservoir, such that when the cathode and the anode are brought into ionic communication the electrolyte or liquid within the reservoir is spread to the interface between the anode and the cathode.
3. The metal air cell as in claim 1 , wherein the cathode is supported on a frame.
4. The metal air cell as in claim 3 , wherein the frame is configured to provide a conduit in fluid communication with the pair of oxidant sides of the cathode.
5. The metal air cell as in claim 1 , wherein oxidant is provided to the cathode separate from cooling air.
6. The metal air cell as in claim 1 , wherein separator is adhered to the cathode.
7. The metal air cell as in claim 1 , wherein separator is adhered to the anode.
8. A metal air cell comprising:
a cathode having an oxidant surface and an anode surface, the cathode being supported on a frame configured to provide a conduit in fluid communication with the oxidant surface;
an anode complementary the cathode's anode surface; and
a separator between the anode and cathode to electrically isolate the anode and the cathode,
wherein an electrolyte is disposed between the cathode and the anode, the electrolyte provided within the anode, separately at the interface between the cathode and the anode, or both within the anode and separately at the interface between the cathode and the anode.
9. The metal air cell as in claim 8 , wherein the anode is supported by two inside surfaces of a cartridge.
10. The metal air cell as in claim 9 , the cartridge further comprising a reservoir at an end opposite an insertion end, the reservoir having electrolyte or liquid therein.
11. The metal air cell as in claim 10 , wherein the cathode is within a structure, the structure having a portion complementing the reservoir, such that when the cathode and the anode are brought into ionic communication the electrolyte or liquid within the reservoir is spread to the interface between the anode and the cathode.
12. The metal air cell as in claim 8 , wherein oxidant is provided to the cathode separate from cooling air.
13. The metal air cell as in claim 8 , wherein separator is adhered to the cathode.
14. The metal air cell as in claim 8 , wherein separator is adhered to the anode.