what happens to a cell when it is infected with wolbachia

Genus of bacteria in the Alphaproteobacteria class

Wolbachia
Wolbachia.png
Transmission electron micrograph of Wolbachia within an insect cell
Credit:Public Library of Scientific discipline / Scott O'Neill
Scientific classification e
Domain: Leaner
Phylum: Pseudomonadota
Class: Alphaproteobacteria
Order: Rickettsiales
Family: Ehrlichiaceae
Genus: Wolbachia
Hertig 1936 (Approved Lists 1980)
Species
  • "Candidatus Wolbachia bourtzisii" Ramirez-Puebla et al. 2015
  • "Candidatus Wolbachia brugii" Ramirez-Puebla et al. 2015
  • "Candidatus Wolbachia collembolicola" Ramirez-Puebla et al. 2015
  • "Candidatus Wolbachia ivorensis" Ehounoud et al. 2016
  • Wolbachia melophagi (Nöller 1917) Philip 1956 (Approved Lists 1980)
  • "Candidatus Wolbachia multihospitum" Ramirez-Puebla et al. 2015
  • "Candidatus Wolbachia onchocercicola" Ramirez-Puebla et al. 2015
  • Wolbachia pipientis Hertig 1936 (Approved Lists 1980)

Wolbachia is a genus of intracellular bacteria that infects mainly arthropod species, including a high proportion of insects, and also some nematodes.[1] [ii] It is one of the nearly mutual parasitic microbes and is possibly the nearly mutual reproductive parasite in the biosphere. Its interactions with its hosts are often complex, and in some cases have evolved to be mutualistic rather than parasitic. Some host species cannot reproduce, or fifty-fifty survive, without Wolbachia colonisation. Ane report concluded that more than than 16% of neotropical insect species acquit bacteria of this genus,[iii] and as many as 25 to 70% of all insect species are estimated to be potential hosts.[4]

History [edit]

The genus was first identified in 1924 by Marshall Hertig and Simeon Burt Wolbach in the mutual firm mosquito. They described it as "a somewhat pleomorphic, rodlike, Gram-negative, intracellular organism [that] apparently infects merely the ovaries and testes".[5] Hertig formally described the species in 1936, and proposed both the generic and specific names: Wolbachia pipientis.[6] Inquiry on Wolbachia intensified later on 1971, when Janice Yen and A. Ralph Barr of UCLA discovered that Culex mosquito eggs were killed by a cytoplasmic incompatibility when the sperm of Wolbachia-infected males fertilized infection-free eggs.[7] [viii] The genus Wolbachia is of considerable interest today due to its ubiquitous distribution, its many dissimilar evolutionary interactions, and its potential use as a biocontrol agent.

Phylogenetic studies take shown that Wolbachia persica (now Francisella persica) was closely related to species in the genus Francisella [9] [x] [11] [12] and that Wolbachia melophagi (now Bartonella melophagi) was closely related to species in the genus Bartonella,[13] [14] [xv] leading to a transfer of these species to these respective genera. Furthermore, unlike Wolbachia, which demand a host prison cell to multiply, F. persica and B. melophagi tin be cultured on agar plates.[16] [xv]

Method of sexual differentiation in hosts [edit]

These bacteria can infect many unlike types of organs, but are nearly notable for the infections of the testes and ovaries of their hosts. Wolbachia species are ubiquitous in mature eggs, just not mature sperm. But infected females, therefore, pass the infection on to their offspring. Wolbachia leaner maximize their spread by significantly altering the reproductive capabilities of their hosts, with four different phenotypes:

  • Male killing occurs when infected males die during larval evolution, which increases the rate of born, infected females.[17]
  • Feminization results in infected males that develop as females or infertile pseudofemales. This is especially prevalent in Lepidoptera species such equally the adzuki edible bean tapping (Ostrinia scapulalis).[18]
  • Parthenogenesis is reproduction of infected females without males. Some scientists have suggested that parthenogenesis may always be attributable to the effects of Wolbachia.[nineteen] An instance of parthenogenesis induced by presence of Wolbachia are some species inside the Trichogramma parasitoid wasp genus,[20] which have evolved to procreate without males due to the presence of Wolbachia. Males are rare in this genus of wasp, mayhap because many accept been killed by that aforementioned strain of Wolbachia.[21]
  • Cytoplasmic incompatibility is the inability of Wolbachia-infected males to successfully reproduce with uninfected females or females infected with another Wolbachia strain. This reduces the reproductive success of those uninfected females and therefore promotes the infecting strain. In the cytoplasmic incompatibility mechanism, Wolbachia interferes with the parental chromosomes during the first mitotic divisions to the extent that they can no longer split up in synchrony.[22]

Effects of sexual differentiation in hosts [edit]

Several host species, such equally those within the genus Trichogramma, are so dependent on sexual differentiation of Wolbachia that they are unable to reproduce effectively without the leaner in their bodies, and some might fifty-fifty exist unable to survive uninfected.[23]

One study on infected woodlice showed the broods of infected organisms had a higher proportion of females than their uninfected counterparts.[24]

Wolbachia, especially Wolbachia-acquired cytoplasmic incompatibility, may be important in promoting speciation.[25] [26] [27] Wolbachia strains that misconstrue the sex ratio may change their host'south pattern of sexual selection in nature,[28] [29] and as well engender stiff selection to forestall their action, leading to some of the fastest examples of natural option in natural populations.[30]

The male killing and feminization effects of Wolbachia infections can also lead to speciation in their hosts. For example, populations of the pill woodlouse, Armadillidium vulgare which are exposed to the feminizing effects of Wolbachia, have been known to lose their female-determining chromosome.[31] In these cases, only the presence of Wolbachia tin cause an individual to develop into a female person.[31] Cryptic species of ground wētā (Hemiandrus maculifrons circuitous) are host to different lineages of Wolbachia which might explain their speciation without ecological or geographical separation.[32] [33]

Fettle advantages by Wolbachia infections [edit]

Wolbachia infection has been linked to viral resistance in Drosophila melanogaster, Drosophila simulans, and mosquito species. Flies, including mosquitoes,[34] infected with the leaner are more than resistant to RNA viruses such as Drosophila C virus, norovirus, flock business firm virus, cricket paralysis virus, chikungunya virus, and West Nile virus.[35] [36] [37]

In the mutual house mosquito, college levels of Wolbachia were correlated with more insecticide resistance.[38]

In leafminers of the species Phyllonorycter blancardella, Wolbachia bacteria assist their hosts produce green islands on yellowing tree leaves, that is, pocket-size areas of leaf remaining fresh, allowing the hosts to continue feeding while growing to their adult forms. Larvae treated with tetracycline, which kills Wolbachia, lose this ability and subsequently only 13% emerge successfully every bit developed moths.[39]

Muscidifurax uniraptor, a parasitoid wasp, also benefits from hosting Wolbachia bacteria.[40]

In the parasitic filarial nematode species responsible for elephantiasis, such as Brugia malayi and Wuchereria bancrofti, Wolbachia has go an obligate endosymbiont and provides the host with chemicals necessary for its reproduction and survival.[41] Elimination of the Wolbachia symbionts through antibiotic treatment therefore prevents reproduction of the nematode, and somewhen results in its premature expiry.

Some Wolbachia species that infect arthropods also provide some metabolic provisioning to their hosts. In Drosophila melanogaster, Wolbachia is found to mediate iron metabolism nether nutritional stress[42] and in Cimex lectularius, the Wolbachia strain cCle helps the host to synthesize B vitamins.[43]

Some Wolbachia strains have increased their prevalence by increasing their hosts' fecundity. Wolbachia strains captured from 1988 in southern California nonetheless induce a fecundity arrears, merely present the fecundity deficit is replaced with a fecundity advantage such that infected Drosophila simulans produces more offspring than the uninfected ones.[44]

Life-history consequences of Wolbachia infection [edit]

Wolbachia ofttimes manipulates host reproduction and life-history in a way that favours its ain propagation. In the Pharaoh pismire, Wolbachia infection correlates with increased colony-level production of reproductives (i.e., greater reproductive investment), and earlier onset of reproductive production (i.e., shorter life-wheel). Infected colonies likewise seem to grow more rapidly.[45] There is substantial bear witness that the presence of Wolbachia that induce parthenogenesis accept put pressure level on species to reproduce primarily or entirely this way.[46]

Additionally, Wolbachia has been seen to subtract the lifespan of Aedes aegypti, carriers of musquito-borne diseases, and it decreases their efficacy of pathogen transmission because older mosquitoes are more likely to take become carriers of one of those diseases.[47] This has been exploited equally a method for pest control.

Genomics [edit]

The kickoff Wolbachia genome to exist adamant was that of one that infects D. melanogaster fruit flies.[48] This genome was sequenced at The Institute for Genomic Enquiry in a collaboration between Jonathan Eisen and Scott O'Neill. The second Wolbachia genome to be adamant was one that infects Brugia malayi nematodes.[49] Genome sequencing projects for several other Wolbachia strains are in progress. A nearly consummate copy of the Wolbachia genome sequence was constitute inside the genome sequence of the fruit fly Drosophila ananassae and large segments were plant in seven other Drosophila species.[50]

In an application of DNA barcoding to the identification of species of Protocalliphora flies, several distinct morphospecies had identical cytochrome c oxidase I gene sequences, well-nigh likely through horizontal gene transfer (HGT) by Wolbachia species as they jump across host species.[51] As a result, Wolbachia can cause misleading results in molecular cladistical analyses.[52] It is estimated that betwixt 20 and l percent of insect species accept evidence of HGT from Wolbachia—passing from microbes to animal (i.e. insects).[53]

Horizontal factor transfer [edit]

Wolbachia species also harbor a bacteriophage called bacteriophage WO or phage WO.[54] Comparative sequence analyses of bacteriophage WO offer some of the most compelling examples of large-scale horizontal gene transfer between Wolbachia coinfections in the same host.[55] It is the outset bacteriophage implicated in frequent lateral transfer between the genomes of bacterial endosymbionts. Factor transfer by bacteriophages could drive significant evolutionary change in the genomes of intracellular bacteria that were previously considered highly stable or prone to loss of genes over fourth dimension.[55]

Minor RNA [edit]

The small not-coding RNAs WsnRNA-46 and WsnRNA-59 in Wolbachia were detected in Aedes aegypti mosquitoes and Drosophila melanogaster. The pocket-size RNAs (sRNAs) may regulate bacterial and host genes.[56] Highly conserved intragenic region sRNA chosen ncrwmel02 was as well identified in Wolbachia pipientis. Information technology is expressed in iv unlike strains in a regulated design that differs according to the sex of the host and the tissue localisation. This suggested that the sRNA may play important roles in the biological science of Wolbachia. [57]

[edit]

Disease vector [edit]

Outside of insects, Wolbachia infects a diverseness of isopod species, spiders, mites, and many species of filarial nematodes (a type of parasitic worm), including those causing onchocerciasis (river incomprehension) and elephantiasis in humans, equally well every bit heartworms in dogs. Not merely are these disease-causing filarial worms infected with Wolbachia, only Wolbachia likewise seems to play an inordinate role in these diseases.

A large office of the pathogenicity of filarial nematodes is due to host allowed response toward their Wolbachia. Elimination of Wolbachia from filarial nematodes generally results in either decease or sterility of the nematode.[58] Consequently, current strategies for control of filarial nematode diseases include emptying of their symbiotic Wolbachia via the simple doxycycline antibiotic, rather than directly killing the nematode with often more toxic antinematode medications.[59]

Disease prevention [edit]

Indonesian research government minister Mohamad Nasir during a visit to a Wolbachia musquito lab of the Eliminate Dengue Project.

Naturally existing strains of Wolbachia have been shown to be a route for vector control strategies because of their presence in arthropod populations, such as mosquitoes.[sixty] [61] Due to the unique traits of Wolbachia that cause cytoplasmic incompatibility, some strains are useful to humans as a promoter of genetic bulldoze within an insect population. Wolbachia-infected females are able to produce offspring with uninfected and infected males; however, uninfected females are only able to produce viable offspring with uninfected males. This gives infected females a reproductive advantage that is greater the higher the frequency of Wolbachia in the population. Computational models predict that introducing Wolbachia strains into natural populations volition reduce pathogen transmission and reduce overall affliction burden.[62] An example includes a life-shortening Wolbachia that can be used to command dengue virus and malaria by eliminating the older insects that comprise more parasites. Promoting the survival and reproduction of younger insects lessens pick pressure level for evolution of resistance.[63] [64]

In add-on, some Wolbachia strains are able to direct reduce viral replication inside the insect. For dengue they include wAllbB and wMelPop with Aedes aegypti, wMel with Aedes albopictus.[65] and Aedes aegypti.[66] A trial in an Australian urban center with 187,000 inhabitants plagued by dengue had no cases in four years, post-obit introduction of mosquitoes infected with Wolbachia. Before trials in much smaller areas had been carried out, simply the upshot in a larger area had not been tested. There did not appear to be whatever environmental sick-furnishings. The cost was A$15 per inhabitant, but information technology was hoped that it could exist reduced to US$one in poorer countries.[67] The "strongest evidence yet" to back up the Wolbachia technique was constitute in its first randomized controlled trial, conducted between 2016 and 2020 in Yogyakarta, an Indonesian city of about 400,000 inhabitants. In August 2020, the trial's Indonesian lead scientist Adi Utarini announced that the trial showed a 77% reduction in dengue cases compared to the control areas.[68] [69]

Wolbachia has also been identified to inhibit replication of chikungunya virus (CHIKV) in A. aegypti. The Wmel strain of Wolbachia pipientis significantly reduced infection and dissemination rates of CHIKV in mosquitoes, compared to Wolbachia uninfected controls and the aforementioned miracle was observed in yellowish fever virus infection converting this bacterium in an first-class hope for YFV and CHIKV suppression.[70]

Wolbachia too inhibits the secretion of West Nile virus (WNV) in cell line Aag2 derived from A. aegypti cells. The mechanism is somewhat novel, as the bacteria actually enhances the production of viral genomic RNA in the cell line Wolbachia. Also, the antiviral issue in intrathoracically infected mosquitoes depends on the strain of Wolbachia, and the replication of the virus in orally fed mosquitoes was completely inhibited in wMelPop strain of Wolbachia.[71]

The effect of Wolbachia infection on virus replication in insect hosts is complex and depends on the Wolbachia strain and virus species.[72] While several studies take indicated consistent refractory phenotypes of Wolbachia infection on positive-sense RNA viruses in Drosophila melanogaster,[73] [74] the yellow fever mosquito Aedes aegypti [75] and the Asian tiger mosquito Aedes albopictus.[76] [77] This upshot is not seen in DNA virus infection[74] and in some cases Wolbachia infection has been associated or shown to increment single stranded DNA[78] and double-stranded Dna virus infection.[79] There is as well currently no evidence that Wolbachia infection restricts any tested negative-sense RNA viruses[80] [81] [82] indicating Wolbachia would be unsuitable for restriction of negative-sense RNA arthropod borne viruses.

Wolbachia infection tin can also increase mosquito resistance to malaria, as shown in Anopheles stephensi where the wAlbB strain of Wolbachia hindered the lifecycle of Plasmodium falciparum.[83]

Withal, Wolbachia infections can enhance pathogen manual. Wolbachia has enhanced multiple arboviruses in Culex tarsalis mosquitoes.[84] In another study, West Nile Virus (WNV) infection rate was significantly higher in Wolbachia-infected mosquitoes compared to controls.[85]

Wolbachia may induce reactive oxygen species–dependent activation of the Toll (cistron family) pathway, which is essential for activation of antimicrobial peptides, defensins, and cecropins that aid to inhibit virus proliferation.[86] Conversely, certain strains actually dampen the pathway, leading to higher replication of viruses. Ane example is with strain wAlbB in Culex tarsalis, where infected mosquitoes actually carried the west nile virus (WNV) more frequently. This is because wAlbB inhibits REL1, an activator of the antiviral Price immune pathway. As a event, conscientious studies of the Wolbachia strain and ecological consequences must be washed before releasing artificially-infected mosquitoes in the surround.[87]

Deployments [edit]

In 2016 it was proposed to gainsay the spread of the Zika virus by convenance and releasing mosquitoes that have intentionally been infected with an appropriate strain of Wolbachia.[88] A contemporary study has shown that Wolbachia has the ability to cake the spread of Zika virus in mosquitoes in Brazil.[89]

In October 2016, it was announced that Usa$18 meg in funding was being allocated for the utilise of Wolbachia-infected mosquitoes to fight Zika and dengue viruses. Deployment is slated for early 2017 in Colombia and Brazil.[90]

In July 2017, Verily, the life sciences arm of Google's parent visitor Alphabet Inc., announced a programme to release about twenty 1000000 Wolbachia-infected Aedes aegypti mosquitoes in Fresno, California, in an attempt to combat the Zika virus.[91] [92] Singapore'south National Environment Bureau has teamed upward with Verily to come up with an advanced, more efficient style to release male Wolbachia mosquitoes for Stage ii of its study to suppress the urban Aedes aegypti mosquito population and fight dengue.[93]

On November iii, 2017, the US Ecology Protection Agency (EPA) registered Mosquito Mate, Inc. to release Wolbachia-infected mosquitoes in 20 U.s.a. states and the District of Columbia.[94]

Event on the sex-differentiation enzyme aromatase [edit]

The enzyme aromatase is found to mediate sex-change in many species of fish. Wolbachia tin can bear on the activity of aromatase in developing fish embryos.[95]

See also [edit]

  • Intragenomic conflict
  • Quorum sensing

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Further reading [edit]

  • Werren, J.H. (1997). "Biology of Wolbachia" (PDF). Almanac Review of Entomology. 42: 587–609. doi:x.1146/annurev.ento.42.1.587. PMID 15012323.
  • Klasson L, Westberg J, Sapountzis P, Näslund K, Lutnaes Y, Darby Ac, Veneti Z, Chen L, Braig HR, Garrett R, Bourtzis K, Andersson SG; Westberg; Sapountzis; Näslund; Lutnaes; Darby; Veneti; Chen; Braig; Garrett; Bourtzis; Andersson (23 March 2009). "The mosaic genome construction of the Wolbachia wRi strain infecting Drosophila simulans". Proc. Natl. Acad. Sci. U.Southward.A. 106 (14): 5725–30. Bibcode:2009PNAS..106.5725K. doi:10.1073/pnas.0810753106. PMC2659715. PMID 19307581. {{cite journal}}: CS1 maint: multiple names: authors list (link)

External links [edit]

  • Virtual Museum of Bacteria
  • Wolbachia research portal at the National Scientific discipline Foundation
  • "I Species' Genome Discovered Inside Another's—Bacterial to Animal Gene Transfers Now Shown to be Widespread, with Implications for Evolution and Control of Diseases and Pests". University of Rochester. 30 Baronial 2007. Retrieved 27 November 2007.
  • "Wolbachia" at the Encyclopedia of Life
  • The Wolbachia Project at Vanderbilt University
  • Images of Wolbachia

vazquezfriest.blogspot.com

Source: https://en.wikipedia.org/wiki/Wolbachia

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