Self-Heating Conductive Ceramic Composites for High Temperature Thermal Energy Storage

Self-Heating Conductive Ceramic Composites for High Temperature Thermal Energy Storage

The absence of affordable and deployable large-scale energy storage poses a major barrier to providing zero-emission energy on demand for societal decarbonization. High temperature thermal energy storage is one promising option with low cost and high scalability, but it is hindered by the inherent c...

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Bibliographic Details
Main Author: Lin Yang (45852) (author)
Other Authors: Peng Peng (321387) (author), Nathaniel Weger (20624167) (author), Sean Mills (17339362) (author), Clément Messeri (20624170) (author), Akanksha K. Menon (10157918) (author), Steven Zeltmann (20624173) (author), Finn Babbe (8486784) (author), Qiye Zheng (1942171) (author), Chaochao Dun (1521727) (author), Chuan Zhang (187157) (author), Jeffrey J. Urban (1321461) (author), Andrew M. Minor (556280) (author), Ravi Prasher (8107343) (author), Hanna Breunig (12334538) (author), Sean Lubner (12838247) (author)
Published: 2025
Subjects:
Physiology
Evolutionary Biology
Ecology
Inorganic Chemistry
Chemical Sciences not elsewhere classified
Physical Sciences not elsewhere classified
one promising option
composites demonstrate stability
936 ° c
thermal performance derives
750 thermal cycles
higher energy density
conventional storage technologies
thermal properties
energy ’
emission energy
societal decarbonization
situ high
simultaneously satisfying
ray diffraction
providing zero
optimizing mechanical
material requirements
major barrier
lower cost
low cost
inherent complexity
hold tests
high scalability
electric ).
deployable large
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