Комнатная муха как модельная система для геронтологических исследований
Авторы:
Название:
Комнатная муха как модельная система для геронтологических исследований
Страницы:
239-245
Обзор написан как дополнение к опубликованному коллективом южнокорейских исследователей в 2015 г. обзору: “Insects as a model system for aging studies” [Lee et al., 2015]. Однако в этом обзоре отсутствуют данные, полученные в многочисленных экспериментах с комнатной мухой (Musca domestica L.). Мы представляем дополнения к этому обзору, учитывающие, что перед наукой, изучающей проблемы старения и долголетия, стоят следующие задачи: 1) исследования популяционных механизмов, определяющих внутрипопуляционный полиморфизм по комплексу показателей приспособленности, в первую очередь - продолжительности жизни; 2) поиск эффективных биомаркеров старения; 3) выявление физиологических и генетических механизмов действия фармакологических препаратов, замедляющих старение; 4) исследование механизмов внешнесредового влияния на продолжительность жизни, в первую очередь - влияния качества и доступности пищи, воздействия света, фотопериодического режима, стрессов различного характера; 5) создание моделей для анализа роли отдельных генетических систем в проявлении и развитии возрастзависимых заболеваний человека.
Introduction Insects belong to the category of model objects recognized in the most complicated and progressive branches of biology: developmental biology, genetics of life span, evolutionary and theoretical biology. Publication of reviews concerning these models expecting always very enthusiastically. So, we are very glad to see the review created by scientific collective from South Korea [Lee et al., 2015]. That article is very actually. Nevertheless, we’d like to complete the picture of usage the model species of insects in aging studies. We assumed that gerontology apart from search and comparison the “genes of longevity” in humans and animals genomes posed the following problems: 1) Investigation of the determinants of intrapopulation polymorphism by complex of fitness indices, first of all the life span. 2) Search for effective biomarkers of senescence. 3) Retrieval of physiological and genetic mechanisms of action for pharmacological preparations delaying senescence. 4) Investigations of environmental impact on life span, mostly effects of food quality and availability, light and photoperiodic regime, different stressors. 5) Development of models for analysis of certain genetic systems role in manifestation of age-related human diseases. We will try to show the use of insects as model objects for each of listed branch of science, and we advise to avoid references listed in Lee and co-authors review. Whereas the house fly Musca domestica L is our constant object in research of genetic base and realization of the program defines the life span we want to supply the review with our obtained data. It is the historical fact that house fly took part in the space flight as a model for investigation of space effects toward the fecundity and life span [Lee et al., 1985]. Since the middle of last century house fly became one of the most using objects in the study of insecticide susceptibility [Sohal et al., 1984], resistance development mechanisms and genetic base [Brown, 1958; Tate et al, 1974; Wang et al., 1991; Thompson et al., 1993; Acevedo et al., 2009; Zhang et al., 2010; Li et al., 2013; Kavi et al., 2014]. Rearing facilities, easy synchronization of developmental stages and opportunity of mass production of insects combine nowadays with results of genome and transcriptome sequence [Liu et al., 2012; Scott et al., 2014]. Small body size and fast generations replacement allow the opportunity to investigate the population aspects of resistance [Gerry, Zhang, 2009; Bell et al., 2010; Kaufman et al., 2010]. The species also became the model of examination of separate fitness components contribution to the integral index named lifespan [Reed, Bryant, 2000, 2004; Benkovskaya, Sokolyanskaya, 2010]. Investigations of intrapopulation polymorphism using fitness evaluation Life span of M. domestica under the laboratory conditions reported in the number of articles [Hucko,1984; Meffert, Regan, 2006]. Results of determination the population indices of fitness for house flies has been published since 2004 [Reed, Bryant, 2004; Meffert, Regan, 2006; Butler et al., 2013; Pastor et al., 2014]. Until this publication [McIntyre, Gooding, 2000] the estimation arrived of maternal age effect toward the survival and development rate of progeny and its competitiveness. To proof one of central hypothesis of senescence evolution witch is the antagonistic pleiotropy hypothesis [Williams, 1957], house fly populations differed by number of individuals fortunate were chosen [Reed, Bryant, 2000]. In this article the interplay shown between the terms of reproduction and the life span with negative correlation longevity - ability to early reproduction. Authors revealed the drastic reduction of long-livers part in the population during the 5 generations of selection under artificial shortening of reproduction terms. The phenomenon has been explained as the result of natural selection and adaptation to the laboratory conditions. During the analysis of fecundity and mortality dynamics since the 2007 in the heterogenic house fly strain Cooper considered as the standard of susceptibility to the insecticides we detected the intrapopulation groups with essential distinctions in life span as well as in reproduction terms. On the base of this knowledge we selected heterogenic and inbred strains from these groups [Benkovskaya, 2011; Benkovskaya, Mustafina, 2012]. Our successful selection allowing us to suppose that these sort of polymorphic reproductive strategies are the universal occurrence in the animal populations especially distinguish by high population density. From the point of view of intrapopulation polymorphism the results obtained earlier [Sohal et al., 1986; Reed, Bryant, 2000] seem to be significant evidence of coexistence of the individuals differ by life strategies and life span. Search of the effective biomarkers of senescence Lipofuscin accumulation with aging showed in house fly [Sohal, Donato, 1979] as the accelerated senescence associated with higher metabolic rates [Sohal et al., 1981]. Analysis of fatty acids in house fly homogenates indicated an age-associated increase in the ratio of polyunsaturated to saturated fatty acids [Sohal et al., 1985]. The role of genomic transposable elements and genetic instability in life span determination is under investigations for a long time, but for some reason the authors of review (Lee et al., 2015) released of attention the interesting articles with other Diptera species - the house fly [Atkinson et al., 1993; Yoshiyama et al., 2000; Claudianos et al., 2002]. Basing on our previous works we investigated the relation between the changes of transposone Hermes DNA copy number during development and shortened or extended life span in Musca domestica strains [Nikonorov, Benkovskaya, 2014]. We succeeded more active reproduction of transposone in genome of short-living house flies than in long-living ones. However, the house flies as the object allowing investigating not only such a particular aims in biology of aging. Reveal of physiological and genetic mechanisms of action of drugs moderating the aging The inhibitors of enzymes examined for capability of life span extension [Allen et al., 1983; Allen et al., 1984] as well as some mimetics of superoxide dismutase and catalase [Bayne, Sohal, 2002]. A great interest is the antioxidant usage for life span extension in many different species including house fly [Sohal, 1988; Sohal et al., 1989; de Quiroga et al., 1990; Agarwal, Sohal, 1994] and the results support the free radical theory of aging [Cui et al., 1999]. The method of house fly model strains with different life span usage in the assays of physiological activity of the putative geroprotectors as well as stress-protectors warranted itself. During the estimation of ecdysone (20-hydroxyecdysone, 20-HE) effects toward the house flies larvae subjected to heat stress we detected the significant distinction in the response to preliminary applying by 20-HE and following heat stress between the short-living and long-living strains [Benkovskaya et al., 2014]. Investigations of environmental impact on life span, mostly effects of food quality and availability, light and photoperiodic regime, different stressors. The life span and fecundity values of house fly as the environment temperature functions presented in the articles [Buchan, Sohal, 1981; Sohal, Buchan, 1981; Farmer, Sohal., 1987; Fletcher et al., 1990]. House flies have been used as model organisms under investigation of CR (caloric restriction) impact to the life span of adults [Cooper et al., 2004], and this model had interesting feature like use of males and analysis of their fertility and life span. The next results evidenced that caloric restriction is species-specific [Mockett et al., 2006]. Radiation effect for several generations of house flies was the reduced viability of larvae and decreased life span of adults [Allen, 1985; Khan, Islam, 2006], however radiation-induced life-lengthening in the house fly showed is a consequence of reduced metabolic activity [Allen, Sohal, 1982]. The branch of hormesis effects reveal, i.e. study of mild stress stimulating influence is one of the most important trends in gerontology. The phenomenon of hormesis is one of the fundamental problems requesting their solving to understand the development of resistance to diseases under the environmental factors action, changing of aging rate and life span variability. Experimental evidences obtained in animal models and human populations allowing to assume that hormesis is the effective protecting tool against a lot of diseases including cardiovascular and neurodegenerative ones [Mattson, 2008]. As consistent with modern conception of hormesis origin whatever factor of physical, chemical or biological nature can appear as stimulating agent if it will be applied in very low dose. A number of experiments described in witch minimal doses of ionizing radiation, different toxic components of food, antibiotics or insecticides caused the growth stimulation, increasing of survival rates, reduction of tumor genesis cases, decreasing of affecting by infections, and positive changing of other parameters of viability in different species and in house flies [Allen, Sohal, 1982; Sohal, 1988]. Hormetic effects obtained in laboratory experiments with invertebrate animals showed the stimulation of development rate, extending of adult’s life span, enhancement of fecundity and larvae viability [Desneux et al., 2004; Trimble et al., 2004; Cutler et al., 2005; Hackenberger et al., 2008; Benkovskaya, 2011]. Interpretation of those effects is limiting nowadays as phenomenology. The importance and urgency of this branch of investigations are closely related to the perspective of human life quality improving by the way of physical activity modification, rational using of adaptogens and strict regulation of drugs application [Calabrese et al., 2008; Hulse et al., 2008; Cox, 2009; Li, He, 2009]. Some of similar results have been investigated in house fly [Sohal, Donato, 1979; Sohal, Runnels, 1986]. Reveal of molecular mechanisms of hormesis developing now. The complexity of this research related to multilevel system of compensatory reactions obstructing the choice of genes associated with hormesis effects manifestation. It is clear only that the realization of those effects depending on the functions of signal ways [Hulse et al., 2008]. Phosphorylation of tyrosine hydroxyl groups of proteins which is inherent to signal transduction realizing with cytokines might be induced by neurotransmitters such the acetylcholine or gamma-aminobutyric acid (GABA) [Swope et al., 1999]. We assume that this moment could be the main point of understanding the molecular base of toxic hormesis whereas the action of xenobiotics including insecticides targeted toward the synapses and their components (neurotransmitter degradation enzymes, neurotransmitter receptors and membrane channels). The most effective insecticides are the inhibitors of acetylcholine esterase (organophosphate compounds) and detoxifying oxydases, antagonists or agonists of acetylcholine receptors (neonicotinoids, nereistoxins), inhibitors of ionotropic channels of GABA receptors (phenylpyrazoles) and electron-depending membrane channels (pyrethroids) [Thaker, 2002; Buckingham et al., 2005; Khan et al., 2013]. It is very probably that commonality of phosphorylation activation involved cytokines is the key parameter of mechanism of insecticide resistance and cross-resistance (unexpected high resistance to not applied early insecticide) development. An example of cross-resistance to phenylpyrazoles (fipronil) with 430-fold level has been detected in the M. domestica strain resistant to γ- hexachlorocyclohexane [Kristensen et al., 2004]. One of the hottest points of prevention and moderation of aging is the role of genotypic peculiarities of individual and group reactions. Our model house fly’s strains selected for early and late reproductive efforts conjugated with reduced or extended life span allowed us to obtain some interesting results. We found that short-living individuals is more responsive toward the toxic stress and manifested more extended life span than long-living ones under the hormetic low doses of insecticides [Benkovskaya, 2011; Benkovskaya et al., 2011]. The models for the analysis of genetic base of age-related human diseases To complete praise fly as an object of research, we must notice that for this species we showed the mutation occurrence manifesting only in “advanced age” in males from Cooper strain. The mutation is lethal for females in homozygous state, i.e. it seems to be linked with X-chromosome [Benkovskaya, Mustafina, 2012]. It manifests as the increased fragility of wing and at the glance could be the model of age osteoporosis in humans, but we don’ risk making such a conclusion due the different ways of development for human’s bones and fly’s wing. We believe that the possibility of using the house fly as a model has not yet been exhausted, and it deserves the honor of being included in the list of insect species which could be the objects in aging and longevity investigations.
- Acevedo G.R., Zapater M., Toloza A.C. Insecticide resistance of house fly, Musca domestica (L.) from Argentina // Parasitol Res. 2009.V.105. P.489-493.
- Allen R.G. Relationship between gamma-irradiation, life span, metabolic rate and accumulation of fluorescent age pigment in the adult male housefly, Musca domestica // Arch. Gerontol. Geriatr. 1985. V.4(2). P.169-178.
- Allen RG, Farmer KJ, Newton RK, Sohal RS. Effects of paraquat administration on longevity, oxygen consumption, lipid peroxidation, superoxide dismutase, catalase, glutathione reductase, inorganic peroxides and glutathione in the adult housefly // Comp Biochem Physiol C. 1984.V.78(2).P.283-288.
- Agarwal S., Sohal R.S. DNA oxidative damage and life expectancy in houseflies // Proc Natl Acad Sci U S A. 1994. V.91 (25). P.12332-12335.
- Allen R.G., Farmer K.J., Sohal R.S. Effect of catalase inactivation on levels of inorganic peroxides, superoxide dismutase, glutathione, oxygen consumption and life span in adult houseflies (Musca domestica) // Biochem J. 1983 . V.216(2). P.503-506.
- Allen R.G., Sohal R.S. Life-lengthening effects of gamma-radiation on the adult housefly, Musca domestica // Mech Ageing Dev. 1982. V.20(4).P.369-375.
- Atkinson, P. W., Warren W. D., O’Brochta D. A. The hobo transposable element of Drosophila can be cross-mobilized in house flies and excises like the Ac element of maize // Proc. Natl. Acad. Sci. U.S.A. 1993.V.90. Р 9693-9697.
- Bayne A.C., Sohal R.S. Effects of superoxide dismutase/catalase mimetics on life span and oxidative stress resistance in the housefly, Musca domestica // Free Radic. Biol Med. 2002. V.32(11). P. 1229-1234.
- Bell H.A., Robinson K.A., Weaver R.J. First report of cyromazine resistance in a population of UK house fly (Musca domestica) associated with intensive livestock production // Pest Manag Sci. 2010.V.66. P. 693-695.
- Benkovskaya G.V. Opportunities and limitations of changes in lifespan in laboratory experiment // Adv. in Gerontology (Russia). 2011. V. 1 (3). P. 255-259.
- Benkovskaya G. V., R. Sh. Mustafina. New Sex Linked Mutation of Wings Fragility with Age Depended Expression (fw) in Musca domestica L. // Genetika. 2012. V.48(2). P. 266-269.
- Benkovskaya G., Nikonorov Y., Akhmetkireeva T. Ecdysone and heat stress: protective effects in Musca domestica L. larvae // Antenna (J. Royal Soc. Entomol UK). Special Edition. 2014. P. 101-102.
- Benkovskaya G.V., Nikonorov Y.M. Mustafina, R.S.. Reproduction and life span in house fly strains with different displacement of reproductive efforts // Resistant Pest Management Newsletter. 2011. Vol. 20. P. 48 - 50.
- Brown A.W. The insecticide-resistance problem: a review of developments in 1956 and 1957. Bull World Health Organ. 1958. V.18(3). P.309-321.
- Buchan P.B., Sohal R.S. Effect of temperature and different sex ratios on physical activity and life span in the adult housefly, Musca domestica // Exp. Gerontol. 1981.V.16(3).P.223-228.
- Buckingham S.D., Biggin P.C., Sattelle B.M. et al. Insect GABA receptors: splicing, editing, and targeting by antiparasitics and insecticides // Mol Pharmacol. 2005. V.68(4). P. 942-951.
- Calabrese E.J, Stanek E.J. 3rd, Nascarella M.A., Hoffmann G.R. Hormesis predicts low-dose responses better than threshold models // Int J Toxicol. 2008. V.27(5).P. 369-378.
- Claudianos C., Brownlie J., Russell R. et al. maT-A Clade of Transposons Intermediate Between mariner and Tc1 // Mol. Biol. Evol. 2002. V.19(12). P.2101-2109.
- Cooper T.M., Mockett R.J., Sohal B.H., et al. Effect of caloric restriction on life span of the housefly, Musca domestica // FASEB J. 2004. V.18(13). P.1591-1593.
- Cox L.A. Jr. Hormesis without cell killing. // Risk Anal. 2009.V.29(3). P.393-400.
- Cui X., Dai X.G., Li W.B., Zhang B.L., Fang Y.Z. Effects of lu-duo-wei capsule on prolonging life span of housefly and Drosophila melanogaster // Am J Chin Med. 1999.V.27(3-4).P.407-413.
- Cutler G.C., Scott-Dupree C.D., Tolman J.H., Harris C.R. Acute and sublethal toxicity of novaluron, a novel chitin synthesis inhibitor, to Leptinotarsa decemlineata (Coleoptera: Chrysomelidae) // Pest Manag Sci. 2005. V.61(11). P.1060-1068.
- Desneux N., Pham-Delègue M.H., Kaiser L. Effects of sub-lethal and lethal doses of lambda-cyhalothrin on oviposition experience and host-searching behaviour of a parasitic wasp, Aphidius ervi // Pest Manag. Sci. 2004 V. 60(4). P.381-389.
- Farmer K.J., Sohal R.S. Effects of ambient temperature on free radical generation, antioxidant defenses and life span in the adult housefly, Musca domestica. Exp. Gerontol. 1987. V.22(1). P.59-65.
- Gerry A.C., Zhang D. Behavioral resistance of house flies, Musca domestica (Diptera: Muscidae) to imidacloprid // US Army Med Dep J. 2009 .V.7-9.P. 54-59.
- Hackenberger B.K., Jarić-Perkusić D., Stepić S. Effect of temephos on cholinesterase activity in the earthworm Eisenia fetida (Oligochaeta, Lumbricidae) // Ecotoxicol Environ Saf. 2008 V. 71(2). P.583-589.
- Hucko M.The role of the house fly (Musca domestica L.) in the transmission of Coxiella burnetii // Folia Parasitol (Praha). 1984.V.31(2).P.177-181.
- Hulse R.E., Swenson W.G., Kunkler P.E., White D.M., Kraig R.P.Monomeric IgG is neuroprotective via enhancing microglial recycling endocytosis and TNF-alpha // J Neurosci. 2008 V.28 (47). P.12199-12211.
- Kaufman P.E., Nunez S.C., Mann R.S., Geden C.J., Scharf M.E. Nicotinoid and pyrethroid insecticide resistance in houseflies (Diptera: Muscidae) collected from Florida dairies. // Pest Manag Sci. 2010.V.66(3). P. 290-294.
- Kavi L.A., Kaufman P.E., Scott J.G. Genetics and mechanisms of imidacloprid resistance in house flies // Pestic Biochem Physiol. 2014 V.109. P.64-69.
- Khan H.S., Islam M.S. Efficacy of gamma radiation against housefly (Musca domestica L.) reproduction and survival II. Adult treatment // J. Bio-Sci. 2006. V. 14. P. 25-30.
- Khan H.A., Akram W., Shad S.A., Lee J.J. Insecticide mixtures could enhance the toxicity of insecticides in a resistant dairy population of Musca domestica L. // PLoS One. 2013. V.8(4):e60929.
- Kristensen M., Jespersen J.B., Knorr M. Cross-resistance potential of fipronil in Musca domestica // Pest Manag. Sci. 2004. V.60. P. 894-900.
- Lee R.E., Bryant E.H., Baust J.G. Fecundity and longevity of houseflies after space flight // Experientia. 1985. V.41(9). P.1191-1192.
- Lee H.-Y., Lee S.-H., Min K.-J. Insects as a model system for aging studies // Entomol. Research. 2015. V.45. P. 1-8.
- Li G., He H. Hormesis, allostatic buffering capacity and physiological mechanism of physical activity: A new theoretic framework // Med Hypotheses. 2009. V. 72, No.5. P. 527-532.
- Li M., Reid W.R., Zhang L., Scott J.G., et al. A whole transcriptomal linkage analysis of gene co-regulation in insecticide resistant house flies, Musca domestica // BMC Genomics. 2013. V.19. P.803. doi:10.1186/1471-2164-14-803.
- Liu F., Tang T., Sun L., Jose Priya T.A. Transcriptomic analysis of the housefly (Musca domestica) larva using massively parallel pyrosequencing // Mol Biol Rep. 2012. V.39(2). P. 1927-34. doi:10.1007/s11033-011-0939-3.
- Mattson M.P. Awareness of hormesis will enhance future research in basic and applied neuroscience // Crit. Rev. Toxicol. 2008. Vol. 38. No.7. P. 633-639.
- McIntyre G.S., Gooding R.H. Effects of maternal age on larval competitiveness in house flies // Heredity (Edinb). 2000. V.85. P.480-489.
- Meffert L.M., Regan J.L. Reversed selection responses in small populations of the housefly (Musca domestica L.) // Genetica. 2006. V.127(1-3). P. 1-9.
- Mockett R.J., Cooper T.M., Orr W.C., Sohal R.S. Effects of caloric restriction are species-specific // Biogerontology. 2006. V.7(3). P.157-160.
- Nikonorov Yu.M., Benkovskaya G.V. The Mechanism of Lifespan Polymorphism Maintenance in the House Fly Laboratory Strain // Advances in Gerontology. 2014. V.4. No.3. P. 163-168.
- Pastor B., Martínez-Sánchez A.S., Ståhls G.A., Rojo S. Introducing improvements in the mass rearing of the housefly: biological, morphometric and genetic characterization of laboratory strains // Bull Entomol Res. 2014. 104(4):486-493. doi:10.1017/S000748531400025X.
- de Quiroga G., López-Torres M., Pérez-Campo R. Relationship between antioxidants, lipid peroxidation and aging // EXS. 1992.V.62. P.109-123.
- Reed D.H., Bryant E.H. The evolution of senescence under curtailed life span in laboratory populations of Musca domestica (the housefly) // Heredity. 2000. V. 85. P.115-121. doi:10.1046/j.1365-2540.2000.00737.x
- Reed D.H., Bryant E.H. Phenotypic correlations among fitness and its components in a population of the housefly // Evol. Biol. 2004. V.17. P. 919-923.
- Scott J.G., Warren W.C., Beukeboom L.W. et al. Genome of the housefly, Musca domestica L., a global vector of diseases with adaptations to a septic environment // Genome Biology. 2014. V.15:446. genomebiology.com/2014/15/9/446
- Sohal R.S. Effect of hydrogen peroxide administration on life span, superoxide dismutase, catalase, and glutathione in the adult housefly, Musca domestica // Exp. Gerontol. 1988.V.23(3). P. 211-216.
- Sohal R.S., Buchan P.B. Relationship between physical activity and life span in the adult housefly, Musca domestica // Exp Gerontol. 1981. V.16(2).P.157-162.
- Sohal R.S., Donato H. Effect of experimental prolongation of life span on lipofuscin content and lysosomal enzyme activity in the brain of the housefly, Musca domestica // J. Gerontol. 1979 V.34(4). P.489-496.
- Sohal R.S., Donato H., Biehl E.R. Effect of age and metabolic rate on lipid peroxidation in the housefly, Musca domestica L. Mech Ageing Dev. 1981. V.16(2).P.159-167.
- Sohal R.S., Farmer K.J., Allen R.G., Ragland S.S. Effects of diethyldithiocarbamate on life span, metabolic rate, superoxide dismutase, catalase, inorganic peroxides and glutathione in the adult male housefly, Musca domestica // Mech. Ageing Dev. 1984. V.24(2). P.175-183.
- Sohal R.S., Müller A., Koletzko B., Sies H. Effect of age and ambient temperature on n-pentane production in adult housefly, Musca domestica // Mech. Ageing Dev. 1985. V.29(3).P.317-326.
- Sohal R.S., Runnels J.H. Effect of experimentally-prolonged life span on flight performance of houseflies // Exp. Gerontol. 1986. V.21(6). P.509-514.
- Sohal R.S., Toy P.L., Allen R.G. Relationship between life expectancy, endogenous antioxidants and products of oxygen free radical reactions in the housefly, Musca domestica // Mech Ageing Dev. 1986. V.36(1). P.71-77.
- Swope S.L., Moss S.J., Raymond L.A., Huganir R.L. Regulation of ligand-gated ion channels by protein phosphorylation // Adv Second Messenger Phosphoprotein Res. 1999. V.33. P.49-78.
- Tate L.G., Plapp F.W., Hodgson E. Genetics of cytochrome P450 in two insecticide-resistant strains of the housefly, Musca domestica L. // Biochem Genet. 1974. V. 11(1). P. 49-63.
- Thacker J.R.M. An introduction to Arthropod Pest Control. Cambridge University Press. 2002. 343 р.
- Thompson M., Steichen J.C., Ffrench-Constant R.H. Conservation of cyclodiene insecticide resistance-associated mutations in insects // Insect Mol Biol. 1993. V.2(3):149-154.
- Trimble R.M., El-Sayed A.M., Pree D.J. Impact of sub-lethal residues of azinphos-methyl on the pheromone-communication systems of insecticide-susceptible and insecticide-resistant obliquebanded leafrollers Choristoneura rosaceana (Lepidoptera: Tortricidae) // Pest Manag Sci. 2004 . V.60(7). P.660-668.
- Wang J.Y., McCommas S., Syvanen M. Molecular cloning of a glutathione S-transferase overproduced in an insecticide-resistant strain of the housefly (Musca domestica) // Mol Gen Genet. 1991. V.227(2). P.260-266.
- Williams G.C. Pleiotropy, natural selection, and the evolution of senescence // Evolution. 1957. V. 11. P. 398-411.
- Yoshiyama M, Honda H, Shono T, Kimura K. Survey of mariner-like elements in the housefly, Musca domestica // Genetica. 2000.V.108(1). P. 81-86.
- Zhang L., Shi J., Shi X., et al. Quantitative and qualitative changes of the carboxylesterase associated with beta-cypermethrin resistance in the housefly, Musca domestica (Diptera: Muscidae). // Comp Biochem Physiol B Biochem Mol Biol. 2010. V.156(1). P. 6-11.