نشاء علم

نشاء علم

الهام زیستی از بلورهای فوتونی و تغییر رنگ در موجودات

نوع مقاله : مقاله ترویجی

نویسندگان
1 دانشگاه تهران، دانشکدگان علوم و فناوری های میان رشته ای، دانشکده مهندسی علوم زیستی، گروه نانوزیست فناوری و زیست تقلید
2 تهران، دانشگاه الزهرا (س)، دانشکده علوم زیستی، گروه بیوتکنولوژی
چکیده
طبیعت طی تکامل با چالش‌های مختلف مورد آزمایش قرارگرفته است و بهترین راه‌حل‌ها با کمک انتخاب طبیعی در طول زمان بهبودیافته‌اند و راه‌حل‌هایی ماندگار با حداکثر کارایی به‌وجود آورده‌اند. یکی از این چالش‌ها تغییر رنگ در موجودات می‌باشد. مکانیسم‌های متفاوتی برای ایجاد رنگ وجود دارد که یکی از مهمترین آن‌ها استفاده از ساختارهای بلور فوتونی یک تا سه بعدی می‌باشد که منجر به ایجاد رنگ‌‌های درخشان و رنگین کمانی می‌شوند. این ساختارها در موجودات مختلفی از جمله حشرات (سوسک‌ها و پروانه‌ها)، پرندگان (پر طاووس)، گیاهان (گل‌های ادلوایس)، حیوانات دریایی (ماهی‌ها و کرم دریایی) و ... ایجاد شده است که برای برقراری ارتباط جنسی، رفتار رمزی، سازگاری با محیط اطراف، هشدار و یا فریب شکارچیان استفاده می‌شود. در این مقاله به بررسی تغییر رنگ با استفاده از ساختارهای بلور فوتونی در ماهی‌ها، سوسک‌ها و پروانه‌ها پرداخته می‌شود. در انتها به الگوبرداری از این ساختارها در صنایع مختلفی از جمله رنگ‌های مصنوعی، حسگرها، سلول‌های خورشیدی، نانولیتوگرافی، صفحه‌های نمایشگر و جعل اسکناس اشاره خواهد شد.
کلیدواژه‌ها

عنوان مقاله English

Bioinspiration of photonic crystals and color change in organisms

نویسندگان English

Fereshteh Rahimi 1
Faeze Mohamadi 1
Mostafa Noroozi 2
1 Department of Nanobiotechnology and Biomimetics, School of Life Science Engineering, College of Interdisciplinary Science and Technology, University of Tehran, Tehran, Iran.
2 Faculty of Biological Sciences, Department of Biotechnology, University of Alzahra, Tehran
چکیده English

During the process of evolution, nature has encountered a multitude of challenges, which have been met with the development of optimal solutions through the mechanism of natural selection. These solutions have undergone refinement over time, resulting in the creation of highly efficient and enduring strategies. One particular challenge that nature has faced is the phenomenon of color change in organisms. A significant mechanism for generating color involves the utilization of one- to three-dimensional photonic crystal structures, which give rise to bright and rainbow colors. These structures have been observed in a variety of organisms, including insects (such as cockroaches and butterflies), birds (such as peacock feathers), plants (such as Edelweiss flowers), and marine animals (such as fishes and sea worms). The phenomenon of color change facilitated by these structures serves a range of purposes, such as sexual communication, cryptic behavior, adaptation to the environment, and the deterrence or deception of predators. In this review, we address the photonic crystal structure-mediated color change in fish, beetles, and butterflies. Finally, we explore various industries bioinspired of these structures, including artificial colors, sensors, solar cells, nanolithography, display screens, and banknote counterfeiting.

کلیدواژه‌ها English

biomimetic
bioinspiration
photonic crystal
color change
  1. Schmitt, O. H. (1969, August). Some interesting and useful biomimetic transforms. In Third Int. Biophysics Congress (Vol. 1069, p. 197).
  2. Bar-Cohen, Y. (2006). Biomimetics—using nature to inspire human innovation. Bioinspiration & biomimetics, 1(1), P1.
  3. زینب موسوی موحدی،"فنآوری های جدید برمبنای دانش زیست الگو و الهام زیستی" فصلنامه نشاء علم، مجلد7، شماره1 سال1395 ، صفحات53-61
  4. Zan, G., & Wu, Q. (2016). Biomimetic and bioinspired synthesis of nanomaterials/ Advanced Materials, 28(11), 2099-2147.
  5. علی اکبر موسوی موحدی " زیست الگو: همگرایی در علم و حکمت" فصلنامه نشاء علم، مجلد4 ،شماره1 1392 ، صفحات 9-6
  6. Xia, Z. (2016). Biomimetic principles and design of advanced engineering materials. John Wiley & Sons.
  7. Sun, J., B. Bhushan, and J.J.R.A. Tong, Structural coloration in nature. 2013. 3(35): p. 14862-14889.
  8. Zhao, Y., Xie, Z., Gu, H., Zhu, C., & Gu, Z. (2012). Bio-inspired variable structural color materials. Chemical Society Reviews, 41(8), 3297-3317.
  9. Biro, L. P., & Vigneron, J. P. (2011). Photonic nanoarchitectures in butterflies and beetles: valuable sources for bioinspiration. Laser & Photonics Reviews, 5(1), 27-51.
  10. Parker, A.R.J.M.t., Natural photonic engineers. 2002. 5(9): p. 26-31.
  11. Parker, A. R. (2004). A vision for natural photonics. Philosophical Transactions of the Royal Society of London. Series A: Mathematical, Physical and Engineering Sciences, 362(1825), 2709-2720.
  12. Yablonovitch, E. (1987). Inhibited spontaneous emission in solid-state physics and electronics. Physical review letters, 58(20), 2059.
  13. John, S. (1987). Strong localization of photons in certain disordered dielectric superlattices. Physical review letters, 58(23), 2486.
  14. Hooke, R. (2003). Micrographia: or some physiological descriptions of minute bodies made by magnifying glasses, with observations and inquiries thereupon. Courier Corporation.
  15. Newton, I. (1952). Opticks, or, a treatise of the reflections, refractions, inflections & colours of light. Courier Corporation.
  16. Rayleigh, L. (1919). VII. On the optical character of some brilliant animal colours. The London, Edinburgh, and Dublin Philosophical Magazine and Journal of Science, 37(217), 98-111.
  17. He, X., Ma, Y., Xie, H., Rao, G., Yang, Z., Zhang, J., & Feng, Z. (2021). Biomimetic nanostructure platform for cancer diagnosis based on tumor biomarkers. Frontiers in Bioengineering and Biotechnology, 9, 687664.
  18. Kemp, D. J. (2007). Female butterflies prefer males bearing bright iridescent ornamentation. Proceedings of the Royal Society B: Biological Sciences, 274(1613), 1043-1047.
  19. Kemp, D. J. (2008). Female mating biases for bright ultraviolet iridescence in the butterfly Eurema hecabe (Pieridae). Behavioral Ecology, 19(1), 1-8.
  20. Loyau, A., Gomez, D., Moureau, B., Théry, M., Hart, N. S., Jalme, M. S., ... & Sorci, G. (2007). Iridescent structurally based coloration of eyespots correlates with mating success in the peacock. Behavioral Ecology, 18(6), 1123-1131.
  21. Merilaita, S., Tuomi, J., & Jormalainen, V. (1999). Optimization of cryptic coloration in heterogeneous habitats. Biological Journal of the Linnean Society, 67(2), 151-161.
  22. Kertész, K., Bálint, Z., Vértesy, Z., Márk, G. I., Lousse, V., Vigneron, J. P., ... & Biró, L. P. (2006). Gleaming and dull surface textures from photonic-crystal-type nanostructures in the butterfly Cyanophrys remus. Physical Review E, 74(2), 021922.
  23. Bond, A. B., & Kamil, A. C. (2002). Visual predators select for crypticity and polymorphism in virtual prey. Nature, 415(6872), 609-613.
  24. GD, R. (2004). Sherratt, TN, Speed, M: Avoiding Attack: The Evolutionary Ecology of Crypsis, Warning Signals and Mimicry.
  25. Arikkath, J., & Campbell, K. P. (2003). Auxiliary subunits: essential components of the voltage-gated calcium channel complex. Current opinion in neurobiology, 13(3), 298-307.
  26. Dolphin, A. C. (2003). β subunits of voltage-gated calcium channels. Journal of bioenergetics and biomembranes, 35, 599-620.
  27. Catterall, W. A. (2000). Structure and regulation of voltage-gated Ca2+ channels. Annual review of cell and developmental biology, 16(1), 521-555.
  28. Welch, V., Vigneron, J. P., Lousse, V., & Parker, A. (2006). Optical properties of the iridescent organ of the comb-jellyfish Beroë cucumis (Ctenophora). Physical Review E, 73(4), 041916.
  29. Kinoshita, S., & Yoshioka, S. (2005). Structural colors in nature: the role of regularity and irregularity in the structure. ChemPhysChem, 6(8), 1442-1459.
  30. Yoshioka, S., Matsuhana, B., Tanaka, S., Inouye, Y., Oshima, N., & Kinoshita, S. (2011). Mechanism of variable structural colour in the neon tetra: quantitative evaluation of the Venetian blind model. Journal of the Royal Society Interface, 8(54), 56-66.
  31. Seago, A. E., Brady, P., Vigneron, J. P., & Schultz, T. D. (2009). Gold bugs and beyond: a review of iridescence and structural colour mechanisms in beetles (Coleoptera). Journal of the Royal Society Interface, 6(suppl_2), S165-S184.
  32. Welch, V., Lousse, V., Deparis, O., Parker, A., & Vigneron, J. P. (2007). Orange reflection from a three-dimensional photonic crystal in the scales of the weevil Pachyrrhynchus congestus pavonius (Curculionidae). Physical Review E, 75(4), 041919.
  33. Lenau, T., & Barfoed, M. (2008). Colours and metallic sheen in beetle shells—a biomimetic search for material structuring principles causing light interference. Advanced Engineering Materials, 10(4), 299-314.
  34. Fabricant, S. A., Kemp, D. J., Krajíček, J., Bosakova, Z., & Herberstein, M. E. (2013). Mechanisms of color production in a highly variable shield-back stinkbug, Tectocoris diopthalmus (Heteroptera: Scutelleridae), and why it matters. PLoS One, 8(5), e64082.
  35. Vigneron, J. P., Pasteels, J. M., Windsor, D. M., Vértesy, Z., Rassart, M., Seldrum, T., ... & Welch, V. (2007). Switchable reflector in the Panamanian tortoise beetle Charidotella egregia (Chrysomelidae: Cassidinae). Physical Review E, 76(3), 031907.
  36. Vigneron, J. P., Colomer, J. F., Vigneron, N., & Lousse, V. (2005). Natural layer-by-layer photonic structure in the squamae of Hoplia coerulea (Coleoptera). Physical Review E, 72(6), 061904.
  37. Rassart, M., Simonis, P., Bay, A., Deparis, O., & Vigneron, J. P. (2009). Scale coloration change following water absorption in the beetle Hoplia coerulea (Coleoptera). Physical Review E, 80(3), 031910.
  38. Vigneron, J. P., Rassart, M., Simonis, P., Colomer, J. F., & Bay, A. (2009, August). Possible uses of the layered structure found in the scales of Hoplia coerulea (Coleoptera). In Biomimetics and Bioinspiration (Vol. 7401, pp. 118-125). SPIE.
  39. Rassart, M., Colomer, J. F., Tabarrant, T., & Vigneron, J. P. (2008). Diffractive hygrochromic effect in the cuticle of the hercules beetle Dynastes hercules. New Journal of Physics, 10(3), 033014.
  40. Parker, A. R., Mckenzie, D. R., & Large, M. C. (1998). Multilayer reflectors in animals using green and gold beetles as contrasting examples. Journal of experimental biology, 201(9), 1307-1313.
  41. Saranathan, V., Osuji, C. O., Mochrie, S. G., Noh, H., Narayanan, S., Sandy, A., ... & Prum, R. O. (2010). Structure, function, and self-assembly of single network gyroid (I 4132) photonic crystals in butterfly wing scales. Proceedings of the National Academy of Sciences, 107(26), 11676-11681.
  42. Vukusic, P., Sambles, J. R., Lawrence, C. R., & Wootton, R. J. (1999). Quantified interference and diffraction in single Morpho butterfly scales. Proceedings of the Royal Society of London. Series B: Biological Sciences, 266(1427), 1403-1411.
  43. Ragaei, M., A.-K.H. Sabry, and A.J.B.R. Abdel-Rahman, Insect’s photonic crystals and their applications. 2016. 13(1): p. 15-20.
  44. Vukusic, P. and J.R.J.N. Sambles, Photonic structures in biology. 2003. 424(6950): p. 852-855.
  45. Biró, L. P., Kertész, K., Vértesy, Z., Márk, G. I., Bálint, Z., Lousse, V., & Vigneron, J. P. (2007). Living photonic crystals: butterfly scales—nanostructure and optical properties. Materials Science and Engineering: C, 27(5-8), 941-946.
  46. Preble, S., Lipson, M., & Lipson, H. (2005). Two-dimensional photonic crystals designed by evolutionary algorithms. Applied Physics Letters, 86(6).
  47. Gondarenko, A., Preble, S., Robinson, J., Chen, L., Lipson, H., & Lipson, M. (2006). Spontaneous emergence of periodic patterns in a biologically inspired simulation of photonic structures. Physical review letters, 96(14), 143904.
  48. Vukusic, P. S. J. R., Sambles, J. R., Lawrence, C. R., & Wootton, R. J. (2002). Limited-view iridescence in the butterfly Ancyluris meliboeus. Proceedings of the Royal Society of London. Series B: Biological Sciences, 269(1486), 7-14.
  49. Finlin, B. S., Crump, S. M., Satin, J., & Andres, D. A. (2003). Regulation of voltage-gated calcium channel activity by the Rem and Rad GTPases. Proceedings of the National Academy of Sciences, 100(24), 14469-14474.
  50. McGee, A. W., Dakoji, S. R., Olsen, O., Bredt, D. S., Lim, W. A., & Prehoda, K. E. (2001). Structure of the SH3-guanylate kinase module from PSD-95 suggests a mechanism for regulated assembly of MAGUK scaffolding proteins. Molecular cell, 8(6), 1291-1301.
  51. Takemura, S. Y., Stavenga, D. G., & Arikawa, K. (2007). Absence of eye shine and tapetum in the heterogeneous eye of Anthocharis butterflies (Pieridae). Journal of Experimental Biology, 210(17), 3075-3081.
  52. Zhao, N., Wang, Z., Cai, C., Shen, H., Liang, F., Wang, D., ... & Xu, J. (2014). Bioinspired materials: from low to high dimensional structure. Advanced Materials, 26(41), 6994-7017.
  53. Takeoka, Y. (2015). Fusion materials for biomimetic structurally colored materials. Polymer Journal, 47(2), 106-113.
  54. Potyrailo, R. A., Ghiradella, H., Vertiatchikh, A., Dovidenko, K., Cournoyer, J. R., & Olson, E. (2007). Morpho butterfly wing scales demonstrate highly selective vapour response. Nature Photonics, 1(2), 123-128.
  55. Biró, L. P., Kertész, K., Vértesy, Z., & Bálint, Z. (2008, August). Photonic nanoarchitectures occurring in butterfly scales as selective gas/vapor sensors. In The Nature of Light: Light in Nature II (Vol. 7057, pp. 44-51). SPIE.
  56. Zhang, G., Zhang, J., Xie, G., Liu, Z., & Shao, H. (2006). Cicada wings: a stamp from nature for nanoimprint lithography. Small, 2(12), 1440-1443.
  57. Huang, J., Wang, X., & Wang, Z. L. (2006). Controlled replication of butterfly wings for achieving tunable photonic properties. Nano letters, 6(10), 2325-2331.
  58. Silver, J., Withnall, R., Ireland, T. G., Fern, G. R., & Zhang, S. (2008). Light-emitting nanocasts formed from bio-templates: FESEM and cathodoluminescent imaging studies of butterfly scale replicas. Nanotechnology, 19(9), 095302.
  59. Zhu, S., Zhang, D., Li, Z., Furukawa, H., & Chen, Z. (2008). Precision replication of hierarchical biological structures by metal oxides using a sonochemical method. Langmuir, 24(12), 6292-6299.
  60. Kertész, K., Molnár, G., Vértesy, Z., Koós, A. A., Horváth, Z. E., Márk, G. I., ... & Biró, L. P. (2008). Photonic band gap materials in butterfly scales: A possible source of “blueprints”. Materials Science and Engineering: B, 149(3), 259-265.
  61. Vigneron, J. P., Rassart, M., Vandenbem, C., Lousse, V., Deparis, O., Biró, L. P., ... & Defrance, P. (2006). Spectral filtering of visible light by the cuticle of metallic woodboring beetles and microfabrication of a matching bioinspired material. Physical Review E, 73(4), 041905.
  62. Wang, J., Liang, J., Wu, H., Yuan, W., Wen, Y., Song, Y., & Jiang, L. (2008). A facile method of shielding from UV damage by polymer photonic crystals. Polymer international, 57(3), 509-514.
  63. Berthier, S., Boulenguez, J., & Bálint, Z. (2007). Multiscaled polarization effects in Suneve coronata (Lepidoptera) and other insects: application to anti-counterfeiting of banknotes. Applied Physics A, 86, 123-130.
  64. Zhang, W., Zhang, D., Fan, T., Gu, J., Ding, J., Wang, H., ... & Ogawa, H. (2009). Novel photoanode structure templated from butterfly wing scales. Chemistry of Materials, 21(1), 33-40.
  65. Pris, A. D., Utturkar, Y., Surman, C., Morris, W. G., Vert, A., Zalyubovskiy, S., ... & Potyrailo, R. A. (2012). Towards high-speed imaging of infrared photons with bio-inspired nanoarchitectures. Nature Photonics, 6(3), 195-200.
  66. Zhang, W., Zhang, D., Fan, T., Ding, J., Gu, J., Guo, Q., & Ogawa, H. (2006). Biomimetic zinc oxide replica with structural color using butterfly (Ideopsis similis) wings as templates. Bioinspiration & Biomimetics, 1(3), 89.
  67. Gale, M. (1989). Diffraction, beauty and commerce. Physics World, 2(10), 24.
  68. Sun, C. H., Jiang, P., & Jiang, B. (2008). Broadband moth-eye antireflection coatings on silicon. Applied Physics Letters, 92(6)/061112.
  69. Zada, I., Zhang, W., Li, Y., Sun, P., Cai, N., Gu, J., ... & Zhang, D. (2016). Angle dependent antireflection property of TiO2 inspired by cicada wings. Applied Physics Letters, 109(15)/