Molecular Thermal Engine Based on a Highly Flexible Elastic Crystal

Molecular Thermal Engine Based on a Highly Flexible Elastic Crystal

Materials that exhibit actuation behavior in response to external stimuli have a wide range of applications owing to their ability to convert input energy into mechanical work. Light and chemicals are common sources of input energy. However, actuation using thermal energy from ambient-temperature so...

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Bibliographic Details
Main Author: Hinako Kato (21431864) (author)
Other Authors: Yoji Horii (1456018) (author), Chiharu Watanabe (21431867) (author), Toshiyuki Sasaki (1678840) (author), Kouhei Ichiyanagi (416420) (author), Mariko Noguchi (8641134) (author), Hiroki Fujimori (2207473) (author), Taro Yamamoto (123751) (author), Hal Suzuki (6433985) (author), Yuichi Hirai (1597189) (author), Takahito Ohmura (15461854) (author), Keigo Yano (16806980) (author), Shotaro Hayashi (2242879) (author), Takashi Kajiwara (1816270) (author)
Published: 2025
Subjects:
Biophysics
Physiology
Biotechnology
Ecology
Inorganic Chemistry
Environmental Sciences not elsewhere classified
Chemical Sciences not elsewhere classified
Physical Sciences not elsewhere classified
least 160 h
exhibit actuation behavior
dodecylated porphyrin molecules
extract kinetic energy
convert input energy
molecular crystal functioning
exhibit high flexibility
temperature heat sources
input energy
temperature sources
common sources
temperature difference
temperature changes
wide range
small weight
rapid oscillations
oscillations persisted
mechanical work
first example
external stimuli
exhibited continuous
applications owing
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