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Solid-State Ultracapacitor Polymer CompositeAn ultracapacitor made from a polymer loaded with ceramic powder would have several advantages over current ultracapacitors and batteries. First is the possibility of it being printable, which would allow for printing the energy storage device along with the circuit instead of having to find a way to add one later without damaging the rest of the components. When not printed in a specific design for use on a printed wiring board, this type of ultracapacitor could still be cured via a mold to a shape suitable to specific applications. Many polymers maintain some flexibility even after curing, such as the silicone used in this study. The manufacturing process would also be far simpler than that of conventional ultracapacitors.In this work, solid-state ultracapacitors were made by adding the dielectric powder to a two-part polymer (resin and hardener) at the same time. The mixture was then cured in the desired shape at a low temperature until completely set. The addition of the powder to the polymer increased its dielectric properties while leaving most of its physical properties unaltered. At higher powder loading percentages, there were some physical changes as the maximum loading point was approached. To determine the efficiency of these solid-state ultracapacitors, their capacitances were tested, and their dielectric constants (DCs) were measured and compared.
Document ID
20220018181
Acquisition Source
Marshall Space Flight Center
Document Type
Technical Memorandum (TM)
Authors
C G Sherrard
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
T D Rolin
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
Date Acquired
December 1, 2022
Publication Date
December 1, 2022
Subject Category
Energy Production and Conversion
Report/Patent Number
NASA/TM-20220018181
Funding Number(s)
WBS: 596118.04.22.62
Distribution Limits
Public
Copyright
Portions of document may include copyright protected material.
Keywords
energy storage
ceramic polymer composite
nanotechnology
capacitance
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