Photochemistry and Thermal Chemistry in Polymeric Ceramic Precursors

Photochemistry and Thermal Chemistry in Polymeric Ceramic Precursors

While pyrolysis of polymeric precursors has gained attention for the additive manufacturing of ceramics, the high-temperature process is energy-inefficient and time-consuming. Recently, photochemistry has been suggested to reduce energy consumption and reaction time, but the microscopic mechanisms o...

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محفوظ في:
التفاصيل البيبلوغرافية
المؤلف الرئيسي: Nabankur Dasgupta (6416735) (author)
مؤلفون آخرون: Kai Ito (10347974) (author), Thomas M. Linker (16807124) (author), Wataru Sugimoto (1826413) (author), Seyedmahmoud Mortazavi (22232929) (author), Rajiv K. Kalia (1781878) (author), Aiichiro Nakano (1403197) (author), Alexander T. Radosevich (1555162) (author), Kohei Shimamura (1656787) (author), Fuyuki Shimojo (1448527) (author), Adri van Duin (7125542) (author), Priya Vashishta (1781872) (author)
منشور في: 2025
الموضوعات:
Biophysics
Biochemistry
Medicine
Genetics
Molecular Biology
Evolutionary Biology
Inorganic Chemistry
Computational Biology
Biological Sciences not elsewhere classified
Chemical Sciences not elsewhere classified
photoexcitation causes scission
multiscale simulation approach
carbonyl carbon shifting
precursor remains stable
reveal distinct photochemical
reduce energy consumption
polymeric ceramic precursors
longer time scales
facile additive manufacturing
ceramics toward achieving
thermal reaction pathways
polymeric precursors
additive manufacturing
thermal pathways
reaction time
acylsilane precursor
thermal chemistry
temperature process
sustainable society
sico clusters
principles nonadiabatic
photoexcited hole
microscopic mechanisms
many atoms
mainly resulting
initial stage
gained attention
design ultralow
combines first
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