Michael Laron Kunz

US Patent:

20180366799, Dec 20, 2018

Filed:

Aug 28, 2018

Appl. No.:

16/114284

Inventors:

- Edison NJ, US
Lois Johnson - Edison NJ, US
Michael Binder - Brooklyn NY, US
Michael Kunz - Saylorsburg PA, US
Phillip J. Black - McConnellsburg PA, US
Michael Oster - Red Bank NJ, US
Tesia Chciuk - Bethlehem PA, US
Regan Johnson - Fairfield PA, US

International Classification:

H01M 12/08
H01M 12/06
H01M 4/42
H01M 4/96

Abstract:

The invention provides for a fully electrically rechargeable metal-air battery systems and methods of achieving such systems. A rechargeable metal air battery cell may comprise a metal electrode an air electrode, and an aqueous electrolyte separating the metal electrode and the air electrode. In some embodiments, the metal electrode may directly contact the electrolyte and no separator or porous membrane need be provided between the air electrode and the electrolyte. Rechargeable metal air battery cells may be electrically connected to one another through a centrode connection between a metal electrode of a first battery cell and an air electrode of a second battery cell. Air tunnels may be provided between individual metal air battery cells. In some embodiments, an electrolyte flow management system may be provided.

US Patent:

20150010833, Jan 8, 2015

Filed:

Dec 14, 2012

Appl. No.:

14/364742

Inventors:

- Edison NJ, US
Michael Binder - Brooklyn NY, US
Phillip J. Black - McConnellsburg PA, US
Lois Johnson - Edison NJ, US
Michael Kunz - Saylorsburg PA, US
Michael Oster - Red Bank NJ, US
Tesia Chciuk - Bethlehem PA, US
Regan Johnson - Fairfield PA, US

Assignee:

Eos Energy Storage, LLC - Edison NJ

International Classification:

H01M 12/08
H01M 4/90
H01M 4/86

US Classification:

429406, 429403, 429405

Abstract:

The invention provides for a fully electrically rechargeable metal anode battery systems and methods of achieving such systems. An electrically rechargeable metal anode cell may comprise a metal electrode, an air contacting electrode, and an aqueous electrolyte separating the metal electrode and the air contacting electrode. In some embodiments, the metal electrode may directly contact the liquid electrolyte and no separator or porous membrane is needed between the air contacting electrode and the electrolyte. Rechargeable metal anode cells may be electrically connected to one another through a centrode connection where a metal electrode of one cell and an air contacting electrode of a second cell are electrically connected. Air tunnels or pathways may be provided between individual metal anode cells arranged in a stack. In some embodiments, an electrolyte flow management system may also be provided to maintain liquid electrolyte at constant levels during charge and discharge cycles.