Aerospace Parker Portable Lithium Battery Energy Storage System

What are the requirements for energy storage systems for aerospace applications?

Energy storage systems developed for aerospace applications must meet extensive requirements to function with the widest array of storage and operating limits, need to exhibit the highest performance characteristics for their class, must maintain low mass and volume combinations, need to be safe and reliable, and must also be cost-effective.

Can lithium batteries be used in aerospace applications?

The use of Li/Li-ion batteries in aerospace applications is still fairly new, and there aren’t many other incidents that are the same magnitude of the Boeing Dreamliner 787-8 incident; however, there are numerous other lithium battery failures that are of high relevance to the aerospace community with respect to safety and reliability.

Why are energy storage systems important in the aerospace industry?

Energy storage systems are relied on in all areas of the aerospace industry as the only power available for these applications is maintained through limited fuel and primary–secondary energy storage and electrical systems.

Are Li-ion batteries the future of aerospace technology?

Clearly, the technology still needs to reach a level of maturity before it’s completely implemented into all new aircraft, but it is expected that as the aerospace community seeks lighter and smaller designs, Li/Li-ion batteries will continually step up as the answer to the call.

How will Li/Li ion technology affect energy storage and power access?

As the private sector grows, the costs of NEO space travel decreases, and as more vehicles and satellites are developed, the need for energy storage and power access will increase. Li/Li-ion technology will have matured by this point and will likely continue to be selected to provide energy storage.

Can lithium ion batteries be used in space exploration?

High energy density batteries are desirable for space exploration, and a current solution is sought in sulfur compound electrodes. A recent study of liquid electrolyte lithium–sulfur (Li–S) combinations displayed that Li–S batteries have a 3–5 times higher theoretical energy density than the most advanced Li/Li-ion batteries used today [ 14 ].