Research on Material and Morphological Structure of Venus Flytrap Trigger Hair
Source abstract
Abstract
Abstract Venus flytrap can sense the very small insects that touch its tactile receptors, known as trigger hairs, and thus capture prey to maintain its nutrient demand. However, there are few studies on the trigger hair and its morphological structure and material properties are not fully understood. In this study, the trigger hair is systematically characterized with the help of different instruments. Results show that trigger hair is a special cantilever beam structure and it has a large longitudinal diameter ratio. Besides, it is composed of a hair lever and a basal podium, and there is a notch near the hair base. The cross-section of the trigger hair is approximately a honeycomb structure, which is composed of many holes. Methods to measure mechanical properties of trigger hair are introduced in this paper. Based on the mechanical tests, trigger hair proved to be a variable stiffness structure and shows a high sensitivity to the external force. These features can provide supports for the understanding of the high-sensitivity sensing mechanism of trigger hairs from the perspective of structure and material, and offer inspirations for the development of high-performance tactile sensors.
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Research context
OpenAlex topics: Advanced Sensor and Energy Harvesting Materials · Tactile and Sensory Interactions · Biomimetic flight and propulsion mechanisms
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (32)
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1. Russell, R. A., Parkinson, S. (1993). Sensing surface shape by touch. In Proceedings of 1993 IEEE International Conference on Robotics and Automation, Atlanta, USA, pp. 423–428.10.1109/ROBOT.1993.292017 ↗
2. Fearing, R. S., & Binford, T. O. (1991). Using a cylindrical tactile sensor for determining curvature. IEEE Transactions on Robotics and Automation, 7, 806–817.10.1109/70.105389 ↗
3. Richard, C. (2006). Toward robots that can sense texture by touch. Science, 312, 1478–1479.
4. Vivek, M., & Saraf, R. F. (2006). High-resolution thin-film device to sense texture by touch. Science, 312, 1501–1504.10.1126/science.1126216 ↗
5. Tremblay, M.R., Cutkosky, M.R. (1993). Estimating friction using incipient slip sensing during a manipulation task. In Proceedings of 1993 IEEE International Conference on Robotics and Automation, Atlanta, USA, pp. 429–434.10.1109/ROBOT.1993.292018 ↗
6. Howe, R.D., Cutkosky, M.R. (1989). Sensing skin acceleration for slip and texture perception. In Proceedings of 1989 International Conference on Robotics and Automation, Scottsdale, USA, pp. 145–150.10.1109/ROBOT.1989.99981 ↗
7. Jiang, Y. G., Ma, Z. Q., Cao, B. N., Gong, L. L., Feng, L., & Zhang, D. Y. (2019). Development of a tactile and slip sensor with a biomimetic structure-enhanced sensing mechanism. Journal of Bionic Engineering, 16, 47–55.10.1007/s42235-019-0005-8 ↗
8. Kaltenbrunner, M., Sekitani, T., Reeder, J., Yokota, T., Kuribara, K., Tokuhara, T., Drack, M., Schwodiauer, R., Graz, I., Bauer-Gogonea, S., Bauer, S., & Someya, T. (2013). An ultra-lightweight design for imperceptible plastic electronics. Nature, 499, 458–463.10.1038/nature12314 ↗
9. Strohmayr, M.W., Worn, H., Hirzinger, G. (2013). The DLR artificial skin step I: Uniting sensitivity and collision tolerance. In Proceedings of the IEEE International Conference on Robotics and Automation, Karlsruhe, Germany, pp. 1012–1018.10.1109/ICRA.2013.6630697 ↗
10. Papakostas, T.V., Lima, J., Lowe, M. (2002). A large area force sensor for smart skin applications. In Proceedings of 2002 IEEE Sensors, Orlando, FL, USA, pp. 1620–1624.10.1109/ICSENS.2002.1037366 ↗
11. Dahiya, R. S., Metta, G., Valle, M., Adami, A., & Lorenzelli, L. (2009). Piezoelectric oxide semiconductor field effect transistor touch sensing devices. Applied Physics Letters, 95, 034105.10.1063/1.3184579 ↗
12. Schmitz, A., Maiolino, P., Maggiali, M., Natale, L., Cannata, G., & Metta, G. (2011). Methods and technologies for the implementation of large-scale robot tactile sensors. IEEE Transactions on Robotics, 27, 389–400.10.1109/TRO.2011.2132930 ↗
13. Ulmen, J., Cutkosky, M. (2010). A robust, low-cost and low-noise artificial skin for human-friendly robots. In Proceedings of 2010 IEEE International Conference on Robotics and Automation. Anchorage, AK, USA, pp. 4836–4841.10.1109/ROBOT.2010.5509295 ↗
14. Ohmura, Y., Kuniyoshi, Y., Nagakubo, A. (2006). Conformable and scalable tactile sensor skin for curved surfaces. In Proceedings of 2006 IEEE International Conference on Robotics and Automation, Orlando, FL, USA, pp. 1348–1353.10.1109/ROBOT.2006.1641896 ↗
15. Amoli, V., Kim, S. Y., Kim, J. S., Choi, H., Koo, J., & Kim, D. H. (2019). Biomimetics for high-performance flexible tactile sensors and advanced artificial sensory systems. Journal of Materials Chemistry C, 7, 14816.10.1039/C9TC05392A ↗
16. Zhang, C. C., Zhang, J. Q., Chen, D. B., Meng, X. C., Liu, L. P., Wang, K. J., Jiao, Z. B., Sun, T., Wang, D. K., Niu, S. C., Han, Z. W., & Ren, L. Q. (2020). Crack-based and hair-like sensors inspired from arthropods: A Review. Journal of Bionic Engineering, 17, 867–898.10.1007/s42235-020-0092-6 ↗
17. Scherzer, S., Federle, W., Al-Rasheid, K. A. S., & Hedrich, R. (2019). Venus flytrap trigger hairs are micronewton mechano-sensors that can detect small insect prey. Nature Plants, 5, 670–675.10.1038/s41477-019-0465-1 ↗
18. Ellison, A., & Adamec, L. (2018). Carnivorous Plants: Physiology, Ecology, and Evolution. Oxford University Press.10.1093/oso/9780198779841.003.0029 ↗
19. Hedrich, R., & Neher, E. (2018). Venus flytrap: How an excitable, carnivorous plant works. Trends Plant Science, 13, 220–234.10.1016/j.tplants.2017.12.004 ↗
20. Fasbender, L., Maurer, D., Kreuzwieser, J., Kreuzer, I., Schulze, W. X., Kruse, J., Becker, D., Alfarraj, S., Hedrich, R., Werner, C., & Rennenberg, H. (2017). The carnivorous Venus flytrap uses prey-derived amino acid carbon to fuel respiration. New Phytologist, 214, 597–606.10.1111/nph.14404 ↗
21. Bouchonville, N., & Nicolas, A. (2019). Quantification of the Elastic Properties of Soft and Sticky Materials Using AFM. Humana Press.10.1007/978-1-4939-8894-5_16 ↗
22. Dokukin, M. E., & Sokolov, I. (2012). On the Measurements of rigidity modulus of soft materials in nanoindentation experiments at small depth. Macromolecules, 45, 4277–4288.10.1021/ma202600b ↗
23. Sneddon, I. N. (1965). The relation between load and penetration in the axisymmetric boussinesq problem for a punch of arbitrary profile. International Journal of Engineering International Journal of Engineering Science, 3, 47–57.
24. Sirghi, L., & Rossi, F. (2006). Adhesion and elasticity in nanoscale indentation. Applied Physics Letters, 89, 243118.10.1063/1.2404981 ↗
25. Mescher, M. C., & De Moraes, C. M. (2015). Role of plant sensory perception in plant-animal interactions. Journal of Experimental Botany, 66, 425–433.10.1093/jxb/eru414 ↗
26. Volkov, A. G., Adesina, T., Markin, V. S., & Jovanov, E. (2008). Kinetics and mechanism of Dionaea muscipula trap closing. Plant Physiology, 146, 694–702.10.1104/pp.107.108241 ↗
27. Volkov, A. G., Foster, J. C., Ashby, T. A., Walker, R. K., Johnson, J. A., & Markin, V. S. (2010). Mimosa pudica: Electrical and mechanical stimulation of plant movements. Plant Cell and Environment, 33, 163–173.10.1111/j.1365-3040.2009.02066.x ↗
28. Bemm, F., Becker, D., Larisch, C., Kreuzer, I., Escalante-Perez, M., Schulze, W. X., Ankenbrand, M., Van de Weyer, A. L., Krol, E., Al-Rasheid, K. A., Mithöfer, A., Weber, A. P., Schultz, J., & Hedrich, R. (2016). Venus flytrap carnivorous lifestyle builds on herbivore defense strategies. Genome Research, 26, 812–825.10.1101/gr.202200.115 ↗
29. Luttge, U. (1971). Structure and function of plant glands. Annual Review of Plant Physiology, 22, 23–44.10.1146/annurev.pp.22.060171.000323 ↗
30. Juniper, B. E., Robins, R. J., & Joel, D. M. (1988). The Carnivorous Plants. Academic Press.
31. Joel, D. M., Rea, P. A., & Juniper, B. E. (1983). The cuticle of Dionaea muscipula ellis (Venus’s Flytrap) in relation to stimulation, secretion and absorption. Protoplasma, 114, 44–51.10.1007/BF01279867 ↗
32. Schulze, W. X., Sanggaard, K. W., Kreuzer, I., Knudsen, A. D., Bemm, F., Thøgersen, I. B., Bräutigam, A., Thomsen, L. R., Schliesky, S., Dyrlund, T. F., Escalante-Perez, M., Becker, D., Schultz, J., Karring, H., Weber, A., Højrup, P., Hedrich, R., & Enghild, J. J. (2012). The protein composition of the digestive fluid from the venus flytrap sheds light on prey digestion mechanisms. Molecular & Cellular Proteomics, 11, 1306–1319.10.1074/mcp.M112.021006 ↗