SBIR-STTR Award

High Energy Density Materials for Projectile Li-ion Battery
Award last edited on: 4/15/2021

Sponsored Program
SBIR
Awarding Agency
DOD : Army
Total Award Amount
$563,707
Award Phase
2
Solicitation Topic Code
A14-082
Principal Investigator
Alex Yu

Company Information

Lionano Inc

19 Presidential Way
Woburn, MA 01801
Location: Multiple
Congr. District: 05
County: Tompkins

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2015
Phase I Amount
$99,973
Lionano Inc. proposes to develop a novel cathode material that will improve lithium ion batteries (LIBs) in terms of both gravimetric and volumetric energy density, length of charge, charging rate, cost and safety. The new cathode material also can be used as a "drop-in replacement" for current LIB systems, and thus new batteries will not need to be designed and manufactured in order to accommodate the material. This battery technology opens up a new era for military applications such as US Army ARDEC munitions and projectiles fired from a gun.

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2017
Phase II Amount
$463,734
Batteries are critical components in modern military electronics. Advanced energy storage devices such as lithium ion batteries (LIBs) must keep up with the development of military technology that demands batteries with high gravimetric and volumetric energy density, fast charging rates, and reliability over extreme operating conditions. These criteria drive our development of new active battery materials that serve as a drop-in replacement for current military LIBs. In Phase I, Lionano compound number 1.0 was engineered at the nanoscale and demonstrated to maximize LIB performance at the cathode. In Phase II three complete battery prototypes, with increasing performance capability, will be produced. The first prototype, made immediately at the start of Phase II, is ready to be assembled at the Battery Prototyping Center at R.I.T. using Lionano cathode material produced at Cornell University. In the next stage of development, a metallic lithium anode will replace graphite to further improve energy density. Finally, an all-solid state battery cell will be produced using a polymer electrolyte to enhance stability and electrochemical performance. The Phase II workflow will integrate testing and projectile qualification with development so iterative improvements can ensure high reliability, lasting performance and shelf-life, while providing quantitative characterization of performance.