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1 - Bioinspired and Biomimetic Design of Multilayered and Multiscale Structures

from Part I - Materials

Published online by Cambridge University Press:  28 August 2020

By
Ali A. Salifu ,
Manu Sebastian Mannoor  and
Wole Soboyejo
Edited by
Wole Soboyejo  and
Leo Daniel
Wole Soboyejo
Affiliation:
Worcester Polytechnic Institute, Massachusetts
Leo Daniel
Affiliation:
Kwara State University, Nigeria
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Summary

In recent years, there has been significant interest in the fields of bioinspired design and biomimetics [1]. Bioinspired design involves the use of scientific and engineering principles in the design of engineering components and structures that are inspired by biological systems. In contrast, biomimetics involves the design of engineering components and structures that copy biological systems. Hence, airfoils and aircraft wings are examples of bioinspired design that are inspired by bird flight but guided by the principles of lift and drag from aerodynamics. In contrast, the early idea of an airplane with flapping wings is an example of biomimetics, which is based on the simple idea of copying nature without thinking carefully about the underlying scientific principles that enable such natural systems to function in the way that they do.

Type
Chapter
Information
Bioinspired Structures and Design , pp. 3 - 19
Publisher: Cambridge University Press
Print publication year: 2020

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References

Meyers, M. A., & Chen, P. -Y. (2014). Biological materials science: Biological materials, bioinspired materials, and biomaterials. Cambridge: Cambridge University Press.Google Scholar
Ratner, B. D. (2013). A history of biomaterials. In Ratner, B. D., Hoffman, A. S., Schoen, F. J., & Lemons, J. E. (Eds.), Biomaterials science: An introduction to materials in medicine (3rd ed.). Amsterdam: Academic Press.Google Scholar
Jakab, P. L. (2013). Leonardo da Vinci’s codex on the flight of birds. Washington, DC: Smithsonian National Air and Space Museum.Google Scholar
Padfield, G. D., & Lawrence, B. (2003). The birth of flight control: An engineering analysis of the Wright Brothers’ 1902 glider. The Aeronautical Journal, 107, 697–718.Google Scholar
de Barros, H. L. (2006). Santos-Dumont and the invention of the airplane. Rio de Janeiro: Brazilian Ministry of Science and Technology and Brazilian Center for Research in Physics.Google Scholar
Currey, J. D., & Taylor, J. D. (1974). The mechanical behaviour of some molluscan hard tissues. Journal of Zoology, 173, 395–406.Google Scholar
Currey, J. D. (1976). Further studies on the mechanical properties of mollusc shell material. Journal of Zoology, 180, 445–453.Google Scholar
Chen, P. Y., Joanna, M. K., & Meyers, M. A. (2012). Biological materials: Functional adaptations and bioinspired designs. Progress in Materials Science, 57, 1492–1704.Google Scholar
Wegst, U. G. K., Bai, H., Saiz, E., Tomsia, A. P., & Ritchie, R. O. (2015). Bioinspired structural materials. Nature Materials, 14, 23–36.Google Scholar
Beese, A. M., Sarkar, S., Nair, A., et al. (2013). Bio-inspired carbon nanotube-polymer composite yarns with hydrogen bond-mediated lateral interactions. ACS Nano, 7, 3434–3446.Google Scholar
Rahbar, N., & Soboyejo, W. O. (2011). Design of functionally graded dental multilayers. Fatigue and Fracture of Engineering Materials and Structures, 34, 887–897.CrossRefGoogle Scholar
Martini, R., & Barthelat, F. (2016). Stretch-and-release fabrication, testing, and optimization of a flexible ceramic armor inspired from fish scales. Bioinspiration and Biomimetics, 11, 066001. doi:10.1088/1748-3190/11/6/066001.Google Scholar
Huang, M., Rahbar, N., Wang, R., Thompson, R. D., & Soboyejo, W. O. (2007). Bioinspired design of dental multilayers. Materials Science and Engineering: A, 464, 315–320.Google Scholar
Li, L., & Ortiz, C. (2015). A natural 3D interconnected laminated composite with enhanced damage resistance. Advanced Functional Materials, 25, 3463–3471.Google Scholar
Wang, L. F., & Boyce, M. C. (2010). Bioinspired structural material exhibiting post-yield lateral expansion and volumetric energy dissipation during tension. Advanced Functional Materials, 20, 3025–3030.Google Scholar
Dooley, C., & Taylor, D. (2017). Self-healing materials: What can nature teach us? Fatigue and Fracture of Engineering Materials and Structures, 40, 655–669.Google Scholar
Niu, X., Rahbar, N., Farias, S., & Soboyejo, W. (2009). Bio-inspired design of dental multilayers: Experiments and model. Journal of the Mechanical Behavior of Biomedical Materials, 2, 596–602.Google Scholar
Wang, R. Z., Suo, Z., Evans, A. G., Yao, N., & Aksay, I. A. (2001). Deformation mechanisms in nacre. Journal of Materials Research, 16, 2485–2493.CrossRefGoogle Scholar
Farmer, B. L., Holmes, D. M., Vandeperre, L. J., Stearn, R. J., & Clegg, W. J. (2002). The growth of bamboo-structured carbon tubes using a copper catalyst. MRS Proceedings, 740, I3.8. doi: 10.1557/PROC-740-I3.8.Google Scholar
Tan, T., Rahbar, N., Allameh, S. M., et al. (2011). Mechanical properties of functionally graded hierarchical bamboo structures. Acta Biomaterialia, 7, 3796–3803.Google Scholar
Du, J., Niu, X., Rahbar, N., & Soboyejo, W. (2013). Bio-inspired dental multilayers: Effects of layer architecture on the contact-induced deformation. Acta Biomaterialia, 9, 5273–5279.Google Scholar
Moored, K. W., Dewey, P. A., Leftwich, M. C., Bart-Smith, H., & Smits, A. J. (2011). Bioinspired propulsion mechanisms based on manta ray locomotion. The Marine Technology Society Journal, 45, 110–118.Google Scholar
Gemmell, B. J., Colin, S. P., Costello, J. H., & Dabiri, J. O. (2015). Suction-based propulsion as a basis for efficient animal swimming. Nature Communications, 6, 8790. doi: 10.1038/ncomms9790.Google Scholar
Fish, F. E., Howle, L. E., & Murray, M. M. (2008). Hydrodynamic flow control in marine mammals. Integrative and Comparative Biology, 48, 788–800.Google Scholar
Melli, J., & Rowley, C. W. (2010). Models and control of fish-like locomotion. Experimental Mechanics, 50, 1355–1360.Google Scholar
Ayali, A., Borgmann, A., Büschges, A., Couzin-Fuchs, E., Daun-Gruhn, S., & Holmes, P. (2015). The comparative investigation of the stick insect and cockroach models in the study of insect locomotion. Current Opinion in Insect Science, 12, 1–10.CrossRefGoogle Scholar
Su, H., Shang, W., Li, G., Patel, N., & Fischer, G. S. (2017). An MRI-guided telesurgery system using a Fabry-Perot interferometry force sensor and a pneumatic haptic device. Annals of Biomedical Engineering, 45, 1917–1928.CrossRefGoogle Scholar
Zhang, Y., Chai, H., & Lawn, B. R. (2010). Graded structures for all-ceramic restorations. Journal of Dental Research, 89, 417–421.Google Scholar
Abate, I., & Tadesse, L. (2018). Bioinspired design for energy storage devices. In Daniel, L. & Soboyejo, W. O. (Eds.), Bioinspired design, Cambridge: Cambridge University Press.Google Scholar
Huskinson, B., Marshak, M. P., Suh, C., et al. (2014). A metal-free organic-inorganic aqueous flow battery. Nature, 505, 195–198.CrossRefGoogle ScholarPubMed
Mannoor, M. S., Jiang, Z., James, T., et al. (2013). 3D printed bionic ears. Nano Letters, 13, 2634–2639.Google Scholar
Mannoor, M. S. (2014). Bionic nanosystems. [PhD thesis.] Princeton: Princeton University.Google Scholar
James, T. (2014). Nanoscale patterning and 3D assembly for biomedical applications. [PhD thesis.] Baltimore: Johns Hopkins University.Google Scholar
Štacko, P., Kistemaker, J. C. M., van Leeuwen, T., Chang, M. -C., Otten, E., & Feringa, B. L. (2017). Locked synchronous rotor motion in a molecular motor. Science, 356, 964–968.Google Scholar
Shan, W., Diller, S., Tutcuoglu, A., & Majidi, C. (2015). Rigidity-tuning conductive elastomer. Smart Materials and Structures, 24, 065001. doi: 10.1088/0964-1726/24/6/065001.Google Scholar
Marshall, G. W. Jr., Balooch, M., Gallagher, R. R., Gansky, S. A., & Marshall, S. J. (2001) Mechanical properties of the dentinoenamel junction: AFM studies of nanohardness, elastic modulus, and fracture. Journal of Biomedical Materials Research, 54, 87–95.3.0.CO;2-Z>CrossRefGoogle ScholarPubMed
Askarinejad, S., Kotowski, P., Youssefian, S., & Rahbar, N. (2016). Fracture and mixed-mode resistance curve behavior of bamboo. Mechanics Research Communications, 78, 79–85.Google Scholar
Damiens, R., Rhee, H., Hwang, Y., et al. (2012). Compressive behavior of a turtle’s shell: Experiment, modeling, and simulation. Journal of the Mechanical Behavior of Biomedical Materials, 6, 106–112.Google Scholar
Owoseni, T. A., Olukole, S. G., Gadu, A. I., Malik, I. A., & Soboyejo, W. O. (2016). Bioinspired design. Advanced Materials Research, 1132, 252–266.Google Scholar
Ghavami, K., Allameh, S. M., Sánchez, M. L., & Soboyejo, W. O. (2003). Multiscale study of bamboo Phyllostachys edulis. First Inter American Conference on Non-Conventional Materials and Technologies in the Eco-Construction and Infrastructure-IAC-NOCMAT.Google Scholar
Bates, S. R. G., Farrow, I. R., & Trask, R. S. (2016). 3D printed polyurethane honeycombs for repeated tailored energy absorption. Materials and Design, 112, 172–183.Google Scholar
Zhou, J., Leuschner, C., Kumar, C., Hormes, J. F., & Soboyejo, W. O. (2006). Sub-cellular accumulation of magnetic nanoparticles in breast tumors and metastases. Biomaterials, 27, 2001–2008.Google Scholar
Obayemi, J. D., Danyuo, Y., Dozie-Nwachukwu, S., et al. (2016). PLGA-based microparticles loaded with bacterial-synthesized prodigiosin for anticancer drug release: Effects of particle size on drug release kinetics and cell viability. Materials Science and Engineering: C, 66, 51–65.CrossRefGoogle ScholarPubMed
Meng, J., Fan, J., Galiana, G., et al. (2009). LHRH-functionalized superparamagnetic iron oxide nanoparticles for breast cancer targeting and contrast enhancement in MRI. Materials Science and Engineering: C, 29, 1467–1479.Google Scholar
Meng, J., Paetzell, E., Bogorad, A., & Soboyejo, W. O. (2010). Adhesion between peptides/antibodies and breast cancer cells. Journal of Applied Physics, 107, 114301. doi: 10.1063/1.3430940.Google Scholar
Dozie-Nwachukwu, S. O., Danyuo, Y., Obayemi, J. D., Odusanya, O. S., Malatesta, K., & Soboyejo, W. O. (2017). Extraction and encapsulation of prodigiosin in chitosan microspheres for targeted drug delivery. Materials Science and Engineering C, 71, 268–278.Google Scholar
Chandrasekaran, A. R., Venugopal, J., Sundarrajan, S., & Ramakrishna, S. (2011). Fabrication of a nanofibrous scaffold with improved bioactivity for culture of human dermal fibroblasts for skin regeneration. Biomedical Materials, 6, 015001. doi:10.1088/1748-6041/6/1/015001.Google Scholar
Eweida, A. M., Nabawi, A. S., Abouarab, M., et al. (2014). Enhancing mandibular bone regeneration and perfusion via axial vascularization of scaffolds. Clinical Oral Investigations, 18, 1671–1678.CrossRefGoogle ScholarPubMed
Lo, K. W., Jiang, T., Gagnon, K. A., Nelson, C., & Laurencin, C. T. (2014). Small-molecule based musculoskeletal regenerative engineering. Trends in Biotechnology, 32, 74–81.Google Scholar
Gershlak, J. R., Hernandez, S., Fontana, G., et al. (2017). Crossing kingdoms: Using decellularized plants as perfusable tissue engineering scaffolds. Biomaterials, 125, 13–22.Google Scholar
DiMarino, A. M., Caplan, A. I., & Bonfield, T. L. (2013). Mesenchymal stem cells in tissue repair. Frontiers in Immunology, 4, 201. doi: 10.3389/fimmu.2013.00201.Google Scholar
Caserta, G. D., Iannucci, L., & Galvanetto, U. (2011). Shock absorption performance of a motorbike helmet with honeycomb reinforced liner. Composite Structures, 93, 2748–2759.Google Scholar

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