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Böceklerde melanizasyon ve melanin temelli bağışıklık

Year 2017, Volume: 7 Issue: 2, 205 - 217, 17.10.2017
https://doi.org/10.16969/entoteb.319250

Abstract

Böceklerde melanin gibi bir çok pigmentin etkili
olduğu renk ve desenlenmeler eşeysel davranışlar, uyarı renklenmesi ve kamuflaj
gibi farklı fonsiyonlar için hayati rol oynar. Kütikular melanin bir çok türde
genetik ve çevresel seçilime uğrar ve melanin kütikula sertleşmesi, yaraların
iyileşmesi ve omurgasızlardaki bağışıklıkta iş gören çok önemli bir bileşendir.
Melanin ve öncülleri bakteri, fungus ve virüslere kadar uzanan patojenlere
karşı geniş bir yelpazede koruyuculuk sağlar. Böceklerde kütikular melanizm ve
bazı doğal bağışıklık tepkileri ortak fizyolojik yolakları paylaşırlar.
Fenoloksidaz (PO) melanin sentezinin kilit enzimi olup hemolimf, bağırsak ve kütikulada
bulunur. Bir böcek hemolimfinde patojenle karşı karşıya geldiğinde hemositlerle
işgalci organizmanın etrafına birikerek etkisiz hale getirir (enkapsülasyon
tepkisi). Hemositler degranüle olarak tirozini L-DOPA’ya ve ardından çeşitli
difenol kinonlara dönüştüren tirozinaz fenoloksidaz salgılarlar. Bu substratlar
en sonunda melanokroma dönüşerek enzim içermeyen bir yolla melanine çevrilir.
Bu derlemede, özellikle melanin temelli bağışıklık tepkileri açısından böcek
fizyolojisinde melanizasyon süreci vurgulanmıştır. Ayrıca, küresel iklim
değişimi kapsamında, melanin temelli bağışıklık sistemi ile sıkı bir şekilde
ilişkisi olan termal melanin hipotezinin önemine dikkat çekilmiştir.

References

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Melanisation and melanin-based immunity in insects

Year 2017, Volume: 7 Issue: 2, 205 - 217, 17.10.2017
https://doi.org/10.16969/entoteb.319250

Abstract

The use of color patterns with pigments, such as melanin, play a vital
role for various functions in insects including sexual behavior, warning
coloration, and camouflage. Cuticular melanin appears to be under some genetic
and environmental selection in many species and, melanin is also a crucial
component in cuticular hardening, wound healing and invertebrate immunity.
Melanin and its precursors provides a protection against a wide range of
pathogens (including bacteria, fungi, animals and viruses) in insects.
Cuticular melanism and some innate immune responses can share common
physiological pathways in insects. Phenoloxidase
(PO), a key enzyme in the synthesis of melanin, is found in the haemolymph,
midgut and cuticle.
When an insect host is confronted with a
hemocoel-bound pathogen, it encapsulates the invading organism with hemocytes
(encapsulation response). The hemocytes degranulate to release a tyrosinase
phenoloxidase, which converts tyrosine to L-DOPA and several other diphenol
quinones. These substrates are eventually transformed into melanochrome, which
non-enzymatically converts to melanin. In this review, importance of the
melanisation process in insect pyhsiology especially in melanin-based innate
immunity responses is highlighted. Additionaly, a special attention is given
the importance of the thermal melanin hypothesis, which is tightly associated
with melanin-based immune investment within the context of global climate
change.

References

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  • Arakane, Y., N. T. Dittmer, Y. Tomoyasu, K. J. Kramer, S. Muthukrishnan, R. W. Beeman & M. R. Kanost, 2010. Identification, mRNA expression and functional analysis of several yellow family genes in Tribolium castaneum. Insect Biochemistry and Molecular Biology, 40: 259–266.
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  • Drapeau, M. D., S. Albert, R. Kucharski, C. Prusko & R. Maleszka, 2006. Evolution of the Yellow/Major Royal Jelly Protein family and the emergence of social behavior in honey bees. Genome Research, 16: 1385-1394.
  • Ellers, J. & C.L. Boggs, 2004. Functional ecological implications of intraspecific differences in wing melanization in Colias butterflies. Biological Journal of the Linnean Society, 82: 79-87.
  • Endler, J. A. 1984. Progressive background matching in moths, and a quantitative measure of crypsis.Biological Journal of Linnean Society, 22: 187-231.
  • Fedorka, K.M., E. K. Copeland & W. E. Winterhalter, 2013a. Seasonality influences cuticle melanization and immune defense in a cricket: support for a temperature-dependent immune investment hypothesis in insects. Journal of Experimental Biology 216(21): 4005-4010.
  • Fedorka, K. M., V. Lee & W. E. Winterhalter, 2013b. Thermal environment shapes cuticle melanism and melanin-based immunity in the ground cricket Allonemobius socius. Evolutionary Ecology 27(3): 521-531.
  • Ferguson, L. C., J. Green, A. Surridge & C. D. Jiggins, 2011. Evolution of the insect yellow gene family. Molecular Biology and Evolution, 28(1): 257-272.
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  • Gibert, P., B. Moreteau, J.C. Moreteau, R. Parkash & J.R. David, 1998. Light body pigmentation in Indian Drosophila melanogaster: a likely adaptation to a hot and arid climate. Journal of Genetics, 77: 13-20.
  • Gillespie, J. P., M. R. Kanost & T. Trenczek, 1997. Biological mediators of insect immunity. Annual Review of Entomology, 42: 611-643.
  • Gonzalez-Santoyo, I. & A. Cordoba-Aguilar, 2012. Phenoloxidase: a key component of the insect immune system. Entomologia Experimentalis et Applicata, 142: 1-16.
  • Gunn, A. 1998. The determination of larval phase coloration in the African armyworm, Spodoptera exempta and its consequences for thermoregulation and protection from UV light. Entomologia Experimentalis et Applicata, 86: 125-133.
  • Han, Q., J. Fang, H. Ding, J. K. Johnson, B. M. Christensen & J. Li, 2002. Identification of Drosophila melanogaster yellow-f and yellow-f2 proteins as dopachrome-conversion enzymes. Biochemical Journal, 368: 333-340.
  • Ito, K., S. Katsuma, K. Yamamoto, K. Kadono-Okuda, K. Mita & T. Shimada, 2010. Yellow-e determines the color pattern of larval head and tail spots of the silkworm Bombyx mori. The Journal of Biological Chemistry, 285: 5624-5629.
  • Kemp, D. J. & R. L. Rutowski, 2011. The role of coloration in mate choice and sexual ınteractions in butterflies. Advances in the Study of Behavior, 4: 55-92.
  • Kettlewell, B. 1973. The Evolution of Melanism. The study of a recurring necessity, with special reference to industrial melanism in the Lepidoptera. Clarendon Press: Oxford, 423 pp.
  • Kingsolver, J.G. 1987. Evolution and coadaptation of thermoregulatory behavior and wing pigmentation pattern in pierid butterflies. Evolution, 41: 472–490.
  • Kingsolver, J. G. & D. C. Wiernasz, 1991. Seasonal polyphenism in wing-melanin pattern and thermoregulatory adaptation in Pieris butterflies. American Naturalist, 137: 816-830.
  • Kutch, I. C., H. Sevgili, T. Wittman & K. M. Fedorka, 2014. Thermoregulation strategy may shape immune investment in Drosophila melanogaster. The Journal of Experimental Biology, 217: 3664-3669.
  • Jacobs, M.D. & W.B. Watt, 1994. Seasonal adaptation vs physiological constraint: Photoperiod, thermoregulation and flight in Colias butterflies. Functional Ecology 8: 366-376.
  • Lavine, M. D. & M. R. Strand, 2002. Insect hemocytes and their role in immunity. Insect Biochemistry and Molecular Biology, 32: 1295-309.
  • Lawniczak, M. K. N., A. I. Barnes, J. R. Linklater, J. M. Boone, S. Wigby & T. Chapman, 2006. Mating and immunity in invertebrates. Trends Ecology and Evolution, 22: 48–55.
  • Li, J., J.W. Tracy & B.M. Christensen, 1992. Phenol oxidase activity in hemolymph compartments of Aedes aegypti during melanotic encapsulation reactions against microfilariae. Developmental & Comparative Immunology 16: 41–48.
  • Li, J. S., C. J. Vavricka, B. M. Christensen & J. Li, 2007. Proteomics analysis of N-glycosylation in mosquito dopachrome conversion enzyme. Proteomics, 7: 2557-2569.
  • Lindstedt, C., H. Eager, E. Ihalainen & A. Kahilainen. 2011. Direction and strength of selection by predators fort he color of the aposematic wood tiger moth. Behavioral Ecology, 22: 580-587.
  • Liu, J., T. R. Lemonds, J. H. Marden & A. Popadic, 2016. A pathway analysis of melanin patterning in a hemimetabolous insect. Genetics, 203: 403-413.
  • Majerus, M. E. N., P. O’Donald & J. Weir, 1982. Female mating preference is genetic. Nature, 300: 521-523.
  • Maleszka, R. & R. Kucharski, 2000. Analysis of Drosophila yellow-B cDNA reveals a new family of proteins related to the royal jelly proteins in the honeybee and to an orphan protein in an unusual bacterium Deinococcus radiodurans. Biochemical and Biophysical Research Communications, 270:773–776.
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Details

Journal Section Review
Authors

Hasan Sevgili

Publication Date October 17, 2017
Published in Issue Year 2017 Volume: 7 Issue: 2

Cite

APA Sevgili, H. (2017). Böceklerde melanizasyon ve melanin temelli bağışıklık. Türkiye Entomoloji Bülteni, 7(2), 205-217. https://doi.org/10.16969/entoteb.319250
AMA Sevgili H. Böceklerde melanizasyon ve melanin temelli bağışıklık. Türkiye Entomoloji Bülteni. October 2017;7(2):205-217. doi:10.16969/entoteb.319250
Chicago Sevgili, Hasan. “Böceklerde Melanizasyon Ve Melanin Temelli bağışıklık”. Türkiye Entomoloji Bülteni 7, no. 2 (October 2017): 205-17. https://doi.org/10.16969/entoteb.319250.
EndNote Sevgili H (October 1, 2017) Böceklerde melanizasyon ve melanin temelli bağışıklık. Türkiye Entomoloji Bülteni 7 2 205–217.
IEEE H. Sevgili, “Böceklerde melanizasyon ve melanin temelli bağışıklık”, Türkiye Entomoloji Bülteni, vol. 7, no. 2, pp. 205–217, 2017, doi: 10.16969/entoteb.319250.
ISNAD Sevgili, Hasan. “Böceklerde Melanizasyon Ve Melanin Temelli bağışıklık”. Türkiye Entomoloji Bülteni 7/2 (October 2017), 205-217. https://doi.org/10.16969/entoteb.319250.
JAMA Sevgili H. Böceklerde melanizasyon ve melanin temelli bağışıklık. Türkiye Entomoloji Bülteni. 2017;7:205–217.
MLA Sevgili, Hasan. “Böceklerde Melanizasyon Ve Melanin Temelli bağışıklık”. Türkiye Entomoloji Bülteni, vol. 7, no. 2, 2017, pp. 205-17, doi:10.16969/entoteb.319250.
Vancouver Sevgili H. Böceklerde melanizasyon ve melanin temelli bağışıklık. Türkiye Entomoloji Bülteni. 2017;7(2):205-17.