Mechanical behavior of cuttlebone structure and its strain rate effect

JIANG Yuting; ZHONG Donghai; FANG Zehui; DING Yuanyuan; ZHOU Fenghua

doi:10.11883/bzycj-2023-0142

Volume 44 Issue 4

Apr. 2024

Turn off MathJax

Article Contents

Abstract

References

Article Navigation > Explosion And Shock Waves > 2024 > 44(4): 043102

ZHU Jian-sheng, ZHAO Guo-zhi, DU Zhong-hua, WANG Xian-zhi. Mechanism of PELE projectiles perpendicularly impacting on thin target plates[J]. Explosion And Shock Waves, 2009, 29(3): 281-288. doi: 10.11883/1001-1455(2009)03-0281-08

Citation:

JIANG Yuting, ZHONG Donghai, FANG Zehui, DING Yuanyuan, ZHOU Fenghua. Mechanical behavior of cuttlebone structure and its strain rate effect[J]. Explosion And Shock Waves, 2024, 44(4): 043102. doi: 10.11883/bzycj-2023-0142

Citation:

PDF( 4295 KB)

Mechanical behavior of cuttlebone structure and its strain rate effect

doi: 10.11883/bzycj-2023-0142

Key Laboratory of Impact and Safety Engineering, Ministry of Education, Ningbo University, Ningbo 315211, Zhejiang, China

Received Date: 2023-04-18
Rev Recd Date: 2023-09-10

Available Online: 2024-01-24

Publish Date: 2024-04-07

Abstract

Abstract

Cuttlefish bone is a biomineralized shell produced inside the cuttlefish that enables deep and shallow floating by adjusting the gas-liquid ratio. As a typical porous material with high specific stiffness, its light-weight and high rigidity make it well adapted to the deep-sea environment. Consequently, cuttlebone is often mimicked to design biomimetic porous materials with high porosity and high stiffness mechanical properties. However, the mechanical behavior of cuttlebone under dynamic loading is still unclear, which is extremely unfavorable for the dynamic design of cuttlebone. This study delves into an extensive exploration of cuttlebone's mechanical behavior under compressions with different loading strain rates using Instron material testing machine and split Hopkinson pressure bar experimental device. Under quasi-static loading conditions, the compressive stress-strain curves of cuttlebone were obtained and exhibited three typical stages, namely linear elastic stage, long plateau stage and densification stage. The specific energy absorption of cuttlebone calculated from the stress-strain curve is illustrated, showing that cuttlebone has a better energy absorption capability compared with other common bionic structures and porous materials. Under dynamic loading scenarios by using split Hopkinson pressure bar, the dynamic stress strain curves of cuttlebone were obtained at loading strain rates of approximate 400−530 s⁻¹. Both the dynamic initial crushing stress and the plateau stress of cuttlebone exhibited a pronounced escalation with increasing loading strain rates, indicating that the cuttlebone structure is strongly sensitive to the loading strain rate. Furthermore, the mechanical attributes of cuttlebone with respect to different growth directions during quasi-static compression tests were investigated. As the growth direction increased, a discernible decline in both stiffness and energy absorption performance within the cuttlebone structure was observed, thus revealing the anisotropy of the compression behavior of cuttlefish bone. These insights not only deepen the understanding of cuttlebone's mechanical behavior but also offer valuable knowledge that can inform biomimetic and bioinspired engineering designs for a range of applications.
- porous material,
- cuttlefish bone,
- high specific stiffness,
- loading strain rate,
- energy absorption characteristics

FullText(HTML)

References(24)

References

[1]	COMPTON B G, LEWIS J A. 3D-Printing of lightweight cellular composites [J]. Advanced Materials, 2014, 26(34): 5930–5935. DOI: 10.1002/adma.201401804.
[2]	ZOK F W, RATHBUN H, HE M, et al. Structural performance of metallic sandwich panels with square honeycomb cores [J]. Philosophical Magazine, 2005, 85: 3207–34. DOI: 10.1080/14786430500073945.
[3]	CADMAN J, CHEN Y H, ZHOU S W, et al. Creating biomaterials inspired by the microstructure of cuttlebone [J]. Materials Science Forum, 2010, 654: 2229–2232. DOI: 10.4028/www.scientific.net/MSF.654-656.2229.
[4]	SHERRARD K M. Cuttlebone morphology limits habitat depth in eleven species of sepia (cephalopoda: sepiidae) [J]. The Biological Bulletin, 2000, 198(3): 404–414. DOI: 10.2307/1542696.
[5]	ROCHA J, LEMOS A F, AGATHOPOULOS S, et al. Scaffolds for bone restoration from cuttlefish [J]. Bone, 2005, 37(6): 850–857. DOI: 10.1016/j.bone.2005.06.018.
[6]	JIAN S, WANG Y, ZHOU W, et al. Topology optimization-guided lattice composites and their mechanical characterizations [J]. Composites Part B: Engineering, 2019, 60: 402–411. DOI: 10.1016/j.compositesb.2018.12.027.
[7]	RIVERA J, HASSEII M S, RESTREPO D, et al. Publisher correction: Toughening mechanisms of the elytra of the diabolical ironclad beetle [J]. Nature, 590(7844): E21. DOI: 10.1038/s41586-020-03106-6.
[8]	DENTON E J, GILPIN-BROWN J B. The buoyancy of the cuttlefish, sepia officinalis [J]. Journal of the Marine Biological Association of the United Kingdom, 1961, 41(2): 319–342. DOI: 10.1017/s0025315400023948.
[9]	ROCHA J H G, LEMOS A F, AGATHOPOULOS S, et al. Hydrothermal growth of hydroxyapatite scaffolds from aragonitic cuttlefish bones [J]. Journal of Biomedical Materials Research Part A, 2006, 77(1): 160–168. DOI: 10.1002/jbm.a.30566.
[10]	BIRCHALL J D, THOMAS N L. On the architecture and function of cuttlefish bone [J]. Journal of Materials Science, 1983, 18(7): 2081–2086. DOI: 10.1007/bf00555001.
[11]	CADMAN J, ZHOU S, CHEN Y, et al. Characterization of cuttlebone for a biomimetic design of cellular structures [J]. Acta Mechanica Sinica, 2010, 26(1): 27–35. DOI: 10.1007/s10409-009-0310-2.
[12]	WARD P D, BOLETZKY S V. Shell implosion depth and implosion morphologies in three species of sepia (cephalopoda) from the Mediterranean Sea [J]. Journal of the Marine Biological Association of the United Kingdom, 1984, 64: 955–966. DOI: 10.1017/s0025315400047366.
[13]	BOLETZKY S V. Biology of early life stages in cephalopod molluscs [J]. Advances in Marine Biology, 2003, 44: 143–203. DOI: 10.1016/S0065-2881(03)44003-0.
[14]	YANG T, JIA Z, CHEN H S, et al. Mechanical design of the highly porous cuttlebone: a bioceramic hard buoyancy tank for cuttlefish [J]. Proceedings of the National Academy of Sciences of the United States of America, 2020, 117(38): 23450–23459. DOI: 10.1073/pnas.2009531117.
[15]	EDWARD L, JIA Z, YANG T, et al. Multiscale mechanical design of the lightweight, stiff, and damage-tolerant cuttlebone: a computational study [J]. Acta Biomaterialia, 2022, 154: 312–323. DOI: 10.1016/j.actbio.2022.09.057.
[16]	MAO A, ZHAO N, LIANG Y, et al. Mechanically efficient cellular materials inspired by cuttlebone [J]. Advanced Materials, 2021, 33(15): 2007348. DOI: 10.1002/adma.202007348.
[17]	YANG C, LI Q M. Advanced lattice material with high energy absorption based on topology optimization [J]. Mechanics of Materials, 2020, 148(10): 103536. DOI: 10.1016/j.mechmat.2020.103536.
[18]	谢慕原, 李鹏飞, 徐汉祥, 等. 基于内壳生长纹的浙江海域曼氏无针乌贼生长特性 [J]. 浙江海洋大学学报(自然科学版), 2022, 41(4): 279–285. DOI: 10.3969/j.issn.1008-830X.2022.04.001. XIE M Y, LI P F, XU H X, et al. Growth characteristics of sepiella maindroni based on growth increments of cuttlebone in coastal water of Zhejiang [J]. Journal of Zhejiang Ocean University (Natural Science Edition), 2022, 41(4): 279–285. DOI: 10.3969/j.issn.1008-830X.2022.04.001.
[19]	QI C, JIANG F, YANG S. Advanced honeycomb designs for improving mechanical properties: A review [J]. Composites, Part B. Engineering, 2021, 227: 109393. DOI: 10.1016/j.compositesb.2021.109393.
[20]	曾斐, 潘艺, 胡时胜. 泡沫铝缓冲吸能评估及其特性 [J]. 爆炸与冲击, 2002, 22(4): 358–362. ZENG F, PAN Y, HU S S. Evaluation of cushioning properties and energy-absorption capability of foam aluminium [J]. Explosion and Shock Waves, 2002, 22(4): 358–362.
[21]	宋玉环, 肖久梅. 聚氨酯/蜂窝铝复合材料的缓冲吸能特性研究[C]//北京力学会学术年会, 北京, 2016: 442–443.
[22]	陈浩, 郭鑫, 宋力. 直接撞击式大变形霍普金森压杆实验技术 [J]. 宁波大学学报(理工版), 2018, 31(4): 70–73. DOI: 10.3969/j.issn.1001-5132.2018.04.012. CHEN H, GUO X, SONG L. A direct impact Hopkinson pressure bar technique for material testing in large deformation [J]. Journal of Ningbo University (Natural Science & Engineering Edition), 2018, 31(4): 70–73. DOI: 10.3969/j.issn.1001-5132.2018.04.012.
[23]	PARK S. W, ZHOU M. Separation of elastic waves in split Hopkinson bars using one-point strain measurements [J]. Experimental Mechanics, 1999, 39(4): 287–294. DOI: 10.1007/bf02329807.
[24]	PIYUSH U, PRAVEER S, NAVIN K. Effect of organic matrix alteration on strain rate dependent mechanical behavior of cortical bone [J]. Journal of the Mechanical Behavior of Biomedical Materials, 2022, 125: 104910. DOI: 10.1016/j.jmbbm.2021.104910.

Relative Articles

[1]	ZHANG Xinyue, XI Xulong, LIU Xiaochuan, BAI Chunyu, LI Xiaocheng, MU Rangke. Energy absorption characteristics and crashworthiness designs for typical metal aircraft fuselage substructure[J]. Explosion And Shock Waves. doi: 10.11883/bzycj-2024-0500
[2]	WANG Yu, LI Yihang, HOU Bing, DOU Qingbo, ZHANG Xinyue, SUO Tao, LI Yulong. Energy absorption characteristics of Ω-shaped thin-walled composite tubes with different ply orientations[J]. Explosion And Shock Waves, 2023, 43(7): 073101. doi: 10.11883/bzycj-2022-0525
[3]	ZHANG Xinyue, HUI Xulong, GE Yujing, SHU Wan, BAI Chunyu, LIU Xiaochuan. Energy absorption characteristics and failure analysis of composite thin-walled structures with different cross-sectional configurations under medium- and low-speed compression loading[J]. Explosion And Shock Waves, 2022, 42(6): 063102. doi: 10.11883/bzycj-2021-0347
[4]	ZHOU Hui, REN Huiqi, WU Xiangyun, YI Zhi, HUANG Kui, MU Chaomin, WANG Hailu. A review of sacrificial claddings in multilayer protective structure[J]. Explosion And Shock Waves, 2022, 42(11): 111101. doi: 10.11883/bzycj-2022-0280
[5]	MA Zihong, ZHANG Huile, SUN Zeyu, CHEN Huimin, YUE Xiaoli. Study on energy absorption characteristics of thin-walled tubes with negative Gaussian curvature[J]. Explosion And Shock Waves, 2022, 42(11): 113101. doi: 10.11883/bzycj-2022-0146
[6]	LIU Yajun, HE Yulong, LIU Shanshan, LI Zhiqiang. Energy absorption capacity of regular polygon-based multi-cell tubes[J]. Explosion And Shock Waves, 2020, 40(7): 071404. doi: 10.11883/bzycj-2019-0423
[7]	DUAN Yulong, WANG Shuo, HE Sen, WAN Lin. Characteristics of gas explosion to diffusion combustion under porous materials[J]. Explosion And Shock Waves, 2020, 40(9): 095401. doi: 10.11883/bzycj-2020-0009
[8]	CHEN Yang, WU Liang, CHEN Ming, XIANG Xiaorui, YANG Deming. Characteristics of strain rate and strain energy during blasting unloading of high stress rock mass[J]. Explosion And Shock Waves, 2019, 39(10): 103202. doi: 10.11883/bzycj-2018-0225
[9]	PAN Hao, WANG Shengtao, WU Zihui, HU Xiaomian. On strength of aluminum under high pressure and high strain rate based on crystal plasticity theory[J]. Explosion And Shock Waves, 2019, 39(2): 023102. doi: 10.11883/bzycj-2018-0084
[10]	LI Chenghua, JIANG Zhaoxiu, WANG Beiqiao, ZHANG Zhen, WANG Yonggang. Nonlinear mechanical response of PZT95/5 ferroelectric ceramics under high strain rate loading[J]. Explosion And Shock Waves, 2018, 38(4): 707-715. doi: 10.11883/bzycj-2016-0329
[11]	SHAO Jiwei, ZHUANG Chunji, WANG Zhirong, HUANG Yunan, LU Wenting. Explosion suppression effect of CH₄/air by combined porous materials in a container piping system[J]. Explosion And Shock Waves, 2018, 38(4): 905-912. doi: 10.11883/bzycj-2017-0064
[12]	Jiang Tao, Wang Jian-zhong, Shi Jia-dong. Resonance and energy-absorption capability of polyurethane foam in high-shock launching for scout-robot[J]. Explosion And Shock Waves, 2014, 34(1): 120-124. doi: 10.11883/1001-1455(2014)01-0120-05
[13]	Zhang Bo-yi, Wang Wei, Wu Gao-hui. Dynamic-compression mechanical properties and energy-absorption capability of fly-ash cenospheres-reinforced 1199Al-matrix composite foam[J]. Explosion And Shock Waves, 2014, 34(1): 28-34. doi: 10.11883/1001-1455(2014)01-0028-07
[14]	Wang Peng-fei, Xu Song-lin, Li Zhi-bin, Hu Shi-sheng. Effect of micro-structure on the strain rate of cellular materials[J]. Explosion And Shock Waves, 2014, 34(3): 285-291. doi: 10.11883/1001-1455(2014)03-0285-07
[15]	ZhengYu-xuan, ZhouFeng-hua, HuShi-sheng. Effectsofperiodically-distributeddefectsonductilefragmentationprocess ofmaterialsunderhighstrain-ratetension[J]. Explosion And Shock Waves, 2013, 33(2): 113-119. doi: 10.11883/1001-1455(2013)02-0113-07
[16]	TangTie-gang, LiuCang-li. Ontheconstitutivemodelforoxygen-freehigh-conductivitycopper underhighstrain-ratetension[J]. Explosion And Shock Waves, 2013, 33(6): 581-586. doi: 10.11883/1001-1455(2013)06-0581-06
[17]	TANG Tie-gang, LI Qing-zhong, CHEN Yong-tao, GU Yan, LIU Cang-li. An improved technique for dynamic tension of metal ring by explosive loading[J]. Explosion And Shock Waves, 2009, 29(5): 546-549. doi: 10.11883/1001-1455(2009)05-0546-04
[18]	LIU Wei-ming, CHENG He-fa, HUANG Xiao-mei, PAN Zhen-ya. Quasi-static compression behaviors of cylindrical tubes filled with open-cell aluminum foam[J]. Explosion And Shock Waves, 2009, 29(6): 654-658. doi: 10.11883/1001-1455(2009)06-0654-05