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Functional Anatomy, Impact Behavior and Energy Dissipation of the Peel of Citrus × limon: A Comparison of Citrus × limon and Citrus maxima

Maximilian Jentzsch, Sarah Becker, Marc Thielen, Thomas Speck

2022Plants23 citationsDOIOpen Access PDF

Abstract

). Both fruit peels consist mainly of parenchyma structured by a density gradient. In order to characterize the lemon peel, both energy dissipation and transmitted force are determined by conducting drop weight tests at different impact strengths (0.15-0.74 J). Fresh and freeze-dried samples were used to investigate the influence on the mechanics of peel tissue's water content. The samples of lemon peel dissipate significantly more kinetic energy in the freeze-dried state than in the fresh state. Fresh lemon samples experience a higher impulse than freeze-dried samples at the same momentum. Drop weight tests results show that fresh lemon samples have a significantly longer impact duration and lower transmitted force than freeze-dried samples. With higher impact energy (0.74 J) the impact behavior becomes more plastic, and a greater fraction of the kinetic energy is dissipated. Lemon peel has pronounced energy dissipation properties, even though the peel is relatively thin and lemon fruits are comparably light. The cell arrangement of citrus peel tissue can serve as a model for bio-inspired, functional graded materials in technical foams with high energy dissipation.

Topics & Concepts

Citrus limonDissipationKinetic energyCitrus × sinensisRutaceaeDrop (telecommunication)HorticultureParenchymaChemistryBotanyComposite materialMaterials scienceBiologyOrange (colour)Computer scienceTelecommunicationsPhysicsThermodynamicsQuantum mechanicsPlant Surface Properties and TreatmentsTree Root and Stability StudiesPolysaccharides Composition and Applications
Functional Anatomy, Impact Behavior and Energy Dissipation of the Peel of Citrus × limon: A Comparison of Citrus × limon and Citrus maxima | Litcius