CC BY
32
REVIEWS
UDC 604.4.665.371 https://doi.org/10.15407/biotech9.04.007
THE CURRENT APPROACHES TO ZIKA VIRUS VACCINATION
F. CAN1, P. PELIT ARAYICI1, A. KARAHAN2, Z. MUSTAFAEVA1, B. MAMEDOV3
1Yildiz Technical University, Istanbul, Turkey 2Uskudar University, Istanbul, Turkey 3Azerbaijan Polymer Materials Institute of theNational Academy of Sciences of Azerbaijan, Sumgayit
E-mail: [email protected]
Received 17.06.2016
The aim of the review was to emphasize the importance of producing new generation high standardized synthetic peptide Zika vaccines which induce both humoral and cellular immunity and eliminate side effects of traditional vaccines. The information was done about Zika virus that is an artropod-born virus, member of the genus Flavivirus in the family Flaviviridae. Zika virus has caused outbreaks in many countries the conditions in adults such as Guillain-Barre syndrome by the dramatically increasing number of cases. According to announcement by World Health Organization, 4 million people could be infected with Zika virus in Americas.
The importance of the development of peptide vaccines against the virus Zika of the new generation, which are the most promising direction of the prevention and treatment of viral infection has emphasized.
Key words: Zika virus, peptide vaccines.
Zika virus (ZIKV) is an arthropod-born virus, member of the genus Flavivirus in the family Flaviviridae [1]. ZIKV was first isolated in 1947 from serum of a Rhesus monkey from Zika Forest, Uganda [1]. ZIKV in human was first confirmed in 1952 in Nigeria. Until 2007, 14 human ZIKV cases were reported [2]. Unreported cases are possible due to high cross-reactivity between other flaviviruses [3]. First ZIKV outbreak was seen in 2007, more than 70% of Yap Island (Micronesia, Pasific Islands) residents were affected [4]. After virus spread to other Pasific Islands, another outbreak was reported in Brazil in 2015. As of June 2016, continuing mosquito-borne transmission was reported in 60 countries and territories [5]. ZIKV infected people can show symptoms including mild fever, conjunctivitis, skin rash, muscle and joint pain and headache up to 7 days [2]. ZIKV has been associated with microcephaly [6] and neurologic conditions in adults such as Guillain-Barre syndrome by the dramatically increasing number of cases[7].
Zika virus
ZIKV is an artropod-born virus, member of the genus Flavivirus in the family Flaviviridae [1]. It is a positive sense single-stranded RNA molecule, approximately 10 thousand bases long [8]. The order of proteins encoded in the ORF (Parapoxvirus is a genus of viruses, in the family Poxviridae, in the subfamily Chordopoxvirinae; Orf is an exanthemous disease caused by a parapox virus and occurring primarily in sheep and goats. It is also known as contagious pustular dermatitis, infectious labial dermatitis, ecthyma contagiosum, thistle disease and scabby mouth. Orf virus is zoonotic — it can also infect humans) is 5'-C-prM-E-NS1-NS2A-NS2B-NS3-NS4A-NS4B-NS5-3' and translated into a polyprotein that is cleaved into capsid (C), precursor membrane (prM), envelope (E) and 7 non-structural proteins (NS) [9].
Zika virus Transmission
ZIKV is a mosquito-transmitted infection related to other Flavivirus species such as dengue, yellow fever and West Nile virus. It is
Fig. 1. The cryo-EM structure of ZIKV at 3.8
spread to people primarily through the bite of infected Aedes mosquitoes [10-12].
A pregnant woman can pass Zika virus to her fetus during pregnancy [13]. A pregnant woman already infected with Zika virus can pass the virus to her fetus during the pregnancy or around the time of birth [14].
Altough incubation period of Zika virus is unknown, when similarity with other Flaviviruses is considered, it is expected to be less than 1 week [15, 16].
Zika virus Symptoms
ZIKV symptoms may be easily confused with other flavivirus infections such as DENV and CHIKV. Symtoms of ZIKV are mild fever, rash, conjunctivitis, and arthralgia, lasting for several days to a week. These unspecific symptoms are seen only in 20-25% of infected individuals [4, 17].
According to the study of the Centers for Disease Control and Prevention (CDC) scientists have concluded ZIKV is a cause of microcephaly and other severe fetal brain defects [18]. Excessive increase of microcephaly after ZIKV outbreak is seen in Fig. 2. Also unusual increase in Guillain-Barr syndrome after ZIKV outbreak is being investigated for possible association [19].
Microcephaly is a birth defect defined as baby's head is significantly smaller than other babies's heads of the same sex and age. Smaller head indicates baby's brain has not developed properly [21]. Affected children may have seizures, intellectual disabilities,
hearing and vision problems depend on severity of microcephaly [22]. According to CDC (Centers for Disease Control and Prevention) report, when outbreak in Brazil analyzed, the risk of microcephaly by ZIKV disease is increasing during the first trimester of pregnancy.
Diagnosis of Zika virus
Thus, sympthoms of ZIKV disease are non-specific and similar to the other arbovirus infections, diagnosis relies on laboratory testing [23, 24]. Therefore, different methods for diagnosis of ZIKV are investigated for quick, functional and precise results. RT-PCR, immunologic assays and virus isolation methods are used for the diagnosis of ZIKV RNA or to detect viral proteins or virus [16, 25, 26]. RT-PCR method is frequently used since it provides sensitivity [26, 27]. Serologic assays are limited since ZIKV antibodies are highly cross-reactive with other flaviviruses [25].
In the diagnosis of virus, the factor which constitutes a major problem is low load of ZIKV in blood and urine. For this reason, virus could not be detected in many patients [28].
It is a rapid test for Ebola virus. By adapting paper-based sensors to ZIKV, virus was detected at low concentrations on blood. Programmed RNA sensors bind to viral RNA and trigger a reaction that causes changes on the colour of paper. With this test, sensitive results are obtained in 3 hours [29].
Fig. 2. Children born with microcephaly in Brazil: suspected cases as of November, 28 [20]
Vaccination against Zika virus
Currently, there is no licensed vaccine or medication against ZIKV. One serious obstacle for clinical development of ZIKV antiviral is risky group who are infected by virus are pregnant women [30].
In the areas where people infected by virus, they have been exposed to Dengue virus outbreak, which is another kind of Flavivirus structurally similar to ZIKV. Studies have been done to understand if there is a serological cross reactivity between Dengue and Zika viruses [31-33].
In a study of Barba-Spaeth et al. [31] antibodies which were taken from have had Dengue, neutralize Zika virus by targeting a conformational epitop area. Since these viruses are targets of the same antibody, a common vaccine can be developed for both viruses.
In a related paper, researchers found that antibodies generated by who has had Dengue virus cause to improve the replication and development of ZIKV. It means enhancement of virus infection [33].
The risk of cross reactivity for whom previously has had Dengue and who has ZIKV alone must be considered together in order to develop a vaccine for either Dengue or ZIKV and minimize the side effects.
ZIKV has causally associated with microcephaly in both humans [6] and mice [34]. As a result of studies with mice 100% immune protection towards Zika Brazilian strain is provided by a purified inactivated Zika virus vaccine and plasmid DNA vaccine. By DNA vaccine, full-sized pre-membrane
and membrane proteins injected. Complete immunization has achieved 3 days after vaccination with single dose. These findings give hope for an effective and safe vaccination for humans [35].
Although classical vaccines such as modified live vaccines or attenuated virus or recently became popular vaccines such as recombinant vaccine are considered as they have many advantages, they also have significant limitations. These can be counted as high costs in development, effectiveness of the immune response and toxicity [36-39]. Peptide based subunit vaccines are also has gained importance since they don't include live or attenuated microorganisms the risk of autoimmunity, allergic reactions reduce [40]. By our project group synthetic peptide vaccines are recommended since they may provide more specific immune response and they can prevent the unwanted side effects.
In a study for the development of synthetic peptide vaccine against Zika, ZIKV envelope glycoprotein sequence was obtained from a protein database and examined with in silico approaches in order to determine the most immunogenic epitopes of B and T cells. By the help of bioinformatics, the most immunogenic ZIKV envelope glycoprotein B and T cell epitopes which induce both humoral and cell mediated immune response has determined. Considering IFN-gamma immune response and hydrophobicity is also important factors to develop a peptide vaccine. To keep hydrophobicity low and limit peptide sequence between 8-22 amino acids are suggested to develop peptide vaccine [41].
The peptide sequence between 123-141 amino acids DAHAKRQTVVVLGSQEGAV were predicted as the most immunogenic epitope for B cells. This sequence is 19 residues long and hydrophilic with molecular weight of 1965.17g/mol. Suggested epitope for CD8+ T cell peptide sequence is from position 250 MMLELDPPF is hydrophilic with molecular weight of 1092.33 g/mol. This epitope also has the highest epitope conservancy [41]. Lack of RNA polymerase proofreading activity raise the significance of epitope conservancy towards ZIKV mutation tendency [42]. ZIKV envelope glycoprotein can also induce IFN gamma production. The sequence from 124 AHAKRQTVVVLGSQEGAVHT 143 with the molecular weight of 2088.33 g/ mol demonstrate the highest score of induce antiviral defense [42]. Molecular weight calculations were done from INNOVAGEN' peptide calculator (http://pepcalc.com/).
So, this review informs about ZIKV, its globally prevalence and importance of vaccine development. In our previous studies binding
synthetic peptides to adjuvant featured carrier polymers such as polyacrylic acid (PAA) [43,44], Poly (N-vinyl-2-pyrrolidone-co-acrylic acid) [P(VP-co-AA)] [45,46], Poly(N-isopropylacrylamide-co-acrylic acid) P(NIPAA/AA) [45-47], etc. and proteins such as Bovine Serum Albumin (BSA) [48], etc. to form peptide-polymer conjugates and use as vaccine prototypes, high antibody titres obtained. Based on our previous studies, in this review we suggest that by binding of the specified antigenic peptide epitopes to various carriers, effective immune response will be achieved by new generation synthetic peptide vaccines.
The results obtained suggest being perspective for peptide vaccine development. For further studies, our aim is to test in silico approaches by producing in vitro, in accordance with the previous studies of our group, to increase the antigenic properties by binding to a polymeric carrier that shows the adjuvant feature. Outcomes of this review will lead researchers who develop ZIKV vaccine.
REFERENCES
1. ICTV. International Comitee on Taxonomy of viruses. Virus taxonomy: 2015 Release, Available online at: http://www.ictvonline. org/virustaxonomy.asp [accesed July 31, 2016].
2. World Health Organization, Zika Factsheets (June 2016), Available online at: http://www. who.int/mediacentre/factsheets/zika/en/ [accessed July 31, 2016].
3. Centers for Disease Control and Prevention, About Zika Virus Disase (July 2016) Available online at: http://www.cdc.gov/zika/about/ overview.html [accessed July 31, 2016].
4. Duffy M. R., Chen T., Hancock W. T, Powers A. M., Kool J. L, Lanciotti R. S., Pretrick M, Marfel M, Holzbauer S., Dubray C., Guillaumot L., Griggs A., Bel M., Lambert A. J., Laven J., Kosoy O., Panella A., Biggerstaff B. J., Fischer M., Hayes E. B. Zika virus outbreak on Yap island, Federated States of Micronesia. New Engl. J. Med. 2009, N 360, P. 2536-2543. doi: 10.1056/NEJMoa0805715.
5. World Health Organization, Zika Situation Report (June 2016), Available at: http://www. who.int/emergencies/zika-virus/situation-report/9-june-2016/en/ [accesed July 25, 2016].
6. Mlakar J., Korva M., Tul N., Popovic M, Poljsak-Prijatelj M., Kolenc M., Resman Rus K., Vesnaver Vipotnik T., Fabjan Vodusek V., Vizjak A.
Zika Virus Associated with Microcephaly. New Engl. J. Med. 2016, N 374, P. 951-958. doi: 10.1056/NEJMoa1600651.
7. Brasil P., Sequeira P. C., D'Avila Freitas A., Einsfeld Zogbi H., Amaral Calvet G., Valls de Souza R., Machado Siqueira A., Lima de Mendonca M. C., Ribeiro Nogueira R. M., Bispo de Filippis A. M., Solomon T. Guillain-Barre syndrome associated with Zika virus infection (Case Report). Lancet. 2016, N 387, P. 1482.
8. International Nucleotide Sequence Database Collaboration, NCBI Gen Bank, Available at: http://www.ncbi.nlm.nih.gov/ nuccore/?term=zika [accessed August 6, 2016].
9. Kuno G., Chang G. J. Full-length sequencing and genomic characterization of Bagaza, Kedougou, and Zika viruses. Arch. Virol. 2007, 152 (4), 687-696. doi: 10.1007/s00705-006-0903-z.
10. Sirohi D., Chen Z., Sun L., Klose T., Pierson T. C., Rossmann M. G., Kuhn R. J. The 3.8 resolution cryo-EM structure of Zika virus. Science. 2016, 352 (6284), 467-470. doi: 10.1126/science.aaf5316.
11. Diallo D., Sall A. A., Diagne C. T., Faye O., Faye O., Ba Y., Hanley K. A., Buenemann M., Weaver S. C., Diallo M. Zika Virus Emergence in Mosquitoes in Southeastern Senegal, 2011. PLoS ONE. 2014, 9 (10), e109442. doi: 10.1371/journal.pone.0109442.
12. Kuno G., Chang G. J., Tsuchiya K. R., Karabatsos N., Cropp C. B. Phylogeny of the
Genus. Flavivirus. J. Virol. 1998, 72 (1), 73-83.
13. Besnard M., Last re S., Teissier A., Cao-Lormeau V. M., Musso D. Evidence of perinatal transmission of Zika virus, French Polynesia, December 2013 and February 2014. Euro Surveill. 2014, 19 (13), pii=20751. Available online at: http://www.eurosurveillance.org/ ViewArticle.aspx?ArticleId=20751 [accessed 10 October 2016].
14. Brasil P., Pereira J. P., Gabaglia C. R., Damasceno L., Wakimoto M., Ribeiro Noguei-ra R. M., Carvalho de Sequeira P., Andr Machado Siqueira M. D., Liege M. Abreu de Carvalho M. D,, Denise Cotrim da Cunha M. D,, Guilherme A. Calvet M. D., Elizabeth S. Neves M. D., Maria E. Moreira M. D., Rodrigues Bai o A. E., Nassar de Carvalho P. R., Janzen C., Valderramos S. G., Cherry J. D., Bispo de Filippis A. M., Nielsen-Saines K. Zika Virus Infection in Pregnant Women in Rio de Janeiro — Preliminary Report. New Engl. J. Med. 2016. doi: 10.1056/NEJMoa1602412. Available at: http://www.nejm.org/doi/ full/10.1056/NEJMoa1602412 [accessed 16 October 2016].
15. Petersen L. R., Jamieson M. D., Powers A. M., Honein M. A. Zika Virus, New Engl. J. Med. 2016, N 374, P. 1552-1563. doi: 10.1056/ NEJMra1602113.
16. Bearcroft W. G. Zika virus infection experimentally induced in a human volunteer. Trans. R. Soc. Trop. Med. Hyg. 1956, V. 50, P. 442-448.
17. Ginier M., Neumayr A., G nther S., Schmidt-Chanasit J., Blum J. Zika without symptoms in returning travellers, what are the implications. Trav. Med. Infect. Dis. 2016, 14 (1), 16-20. doi: 10.1016/j.tmaid.2016.01.012.
18. Rasmussen S. A., Jamieson D. J., Honein M. A., Petersen L. R. Zika Virus and Birth Defects — Reviewing the Evidence for Causality. New Engl. J. Med. 19 May, 2016, N 374, P. 1981-1987. doi: 10.1056/ NEJMsr1604338.
19. Paploski I. A. D., Prates A. P. P. B., Cardoso C. W., Kikuti M., Silva M. M. O., Waller L. A., Reis M. G. Time lags between exanthematous illness attributed to Zika virus, Guillain-Barr syndrome, and microcephaly, Salvador, Brazil. Emerg. Infect. Dis. 2016, 22 (8), 1438-1444. http://dx.doi.org/10.3201/ eid2208. 160496.
20. Science News, Virus spread by mosquitoes linked to rare birth defect Available at: https://www.sciencenews.org/article/virus-spread-mosquitoes-linked-rare-birth-defect [accesed October 08, 2016].
21. Centers for Disease Control and Prevention, About Zika Virus Disase, July 25, 2016. Available at: http://www.cdc.gov/ncbddd/
birthdefects/microcephaly.html. [accesed August 25, 2016].
22. Fiorentino D. G., Montero F. J. The Zika Virus and Pregnancy. Curr. Obstet. Gynecol. Rep. 2016, V. 5, P. 234. doi: 10.1007/s13669-016-0171-1.
23. Kleber de Oliveira W., Cortez-Escalante J., De Oliveira W. T., Ikeda do Carmo G. M., Maierovitch Pessanha Henriques C, Evelim Coelho G, Vinicius Araujo de Frang G. Increase in Reported Prevalence of Microcephaly in Infants Born to Women Living in Areas with Confirmed Zika Virus Transmission During the First Trimester of Pregnancy — Brazil, 2015. MMWR Morb. Mortal Weekly Rep. 2016, V. 65, P. 242-247. http://dx.doi.org/10.15585/ mmwr.mm6509e2.
24. Musso D, Gublerb D. J. Zika Virus. Clin. Microbiol. Rev. 2016, 29 (3) 487-524. doi: 10.1128/CMR.00072-15.
25. Lanciotti R. S., Kosoy O. L., Laven J. J., Velez J. O., Lambert A. J., Johnson A. J., Stanfield S. M., Duffy M. R. Genetic and serologic properties of Zika virus associated with an epidemic, Yap State, Micronesia, 2007. Emerg. Infect. Dis. 2008, 14 (8), 1232-1239. doi: 10.3201/ eid1408.080287.
26. Faye O., Faye O., Diallo D., Diallo M., Weidmann M., Sall A. A. Quantitative real-time PCR detection of Zika virus and evaluation with field-caught Mosquitoes. Virol. J. 2013, V. 10, P. 311. doi: 10.1186/1743-422X-10-311.
27. Faye O., Faye O., DupressoirA., Weidmann M., Ndiaye M., Alpha Sall A., One-step RT-PCR for detection of Zika virus. J. Clin. Virol. 2008, 43 (1), 96-101. doi: 10.1016/j. jcv.2008.05.005.
28. Corman V. M., Rasche A., Baronti C., Al-dabbagh S., Cadar D., Reusken C. B. E. M., Pas S. D., Goorhuis A., Schinkel J., Molenkamp R., Kuemmerer B. M., Bleicker T., Brünink S., Eschbach Bludau M., EisHübinger A. M., Koopmans M. P., Schmidt Chanasit J., Grobusch M. P., de Lamballerie X., Drostena C., Drexlera J. F. Clinical comparison, standardization and optimization of Zika virus molecular detection [Submitted]. Bull. World Health Organ E-pub: 19 Apr 2016. doi: http:// dx.doi.org/10.2471/BLT.16.175950.
29. Pardee K., Green A. A., Takahashi M. K., Braff D., Lambert G., Lee J. W., Ferrante T., Ma D., Donghia N., Fan M., Daringer N. M., Bosch I., Dudley D. M., O'Connor D. H., Gehrke L., Collins J. J. Rapid, Low-Cost Detection of Zika Virus Using Programmable Biomolecular Components Pardee. Cell.
2016, 165 (5), 1255-1266. doi: 10.1016/j. cell.2016.04.059.
30. Shan C., Xie X., Barrett A. D. T, Garcia-Blanco M. A, Tesh R. B., Fernando da Costa Vasconcelos P., Vasilakis N., Weaver S. C., Shi P. Y. Zika Virus: Diagnosis, Therapeutics, and Vaccine. ACS Infect. Dis. 2016, V. 2, 170-172. doi: 10.1021/acsinfecdis.6b00030.
31. Barba-Spaeth G., Dejnirattisai W., Rouvinski A., Vaney M. C., Medits I., Sharma A., Simon-Lori re E., Sakuntabhai A, Cao-Lormeau V. M, Haouz A., England P., Stiasny K., Mong-kolsapaya J., Heinz F. X., Screaton G. R., Rey F. A. Structural basis of potent Zika — dengue virus antibody cross-neutralization. Nature. 2016, N 536, P. 48-53. doi: 10.1038/ nature18938.
32. Paul L. M., Carlin E. R., Jenkins M. M., Tan A. L., Barcellona C. M., Nicholson C. O., Trautmann L., Michael S. F., Isern S. Dengue Virus Antibodies Enhance Zika Virus Infection. bioRxiv, preprint. doi: http:// dx.doi.org/10.1101 /050112.
33. Dejnirattisai W., Supasa P., Wongwiwat W., Rouvinski A., Barba-Spaeth G., Duangchinda T., Sakuntabhai A., Cao-Lormeau V. M., Malasit P., Rey F. A., Mongkolsapaya J., Screaton G. R. Dengue virus sero-cross-reactivity drives antibody-dependent enhancement of infection with zika virus. Nat. Immunol. 2016, V. 17, P. 1102-1108. doi: 10.1038/ni.3515.
34. Li C., Xu D., Ye Q., Hong S., Jiang Y., Liu X., Zhang N., Shi L., Qin C. F., Xu Z. Zika Virus Disrupts Neural Progenitor Development and Leads to Microcephaly in Mice. Cell Stem. Cell. 2016, 19 (1), 120-126. doi: 10.1016/j. stem. 2016.04.017.
35. Larocca R. A., Abbink P., Peron J. P. S., de A. Zanotto P. M., Iampietro M. J., Badamchi-Zadeh A., Boyd M., Ng'ang'a D., Kirilova M., Nityanandam R., Mercado N. B., Li Z., Moseley E. T., Bricault C. A., Borducchi E. N., Giglio P. B., Jetton D., Neubauer G., Nkolo-la J. B., Maxfield L. F., De La Barrera D. A., Jarman R. G., Eckels K. H., Michael N. L., Thomas S. J., Barouch D. H. Vaccine protection against Zika virus from Brazil. Nature. 2016, N 536, P. 474-478. doi: 10.1038/nature18952.
36. Levine M., Sztein M. B. Vaccine development strategies for improving immunization: the role of modern immunology. Nat. Immunol. 2004, 5 (5), 460-464. doi: 10.1038/ ni0504-460.
37. Englund J. A, Karron R.A., Cunningham C.K., Larussa P., Melvin A., Yogev R., Handels-man E., Siberry G. K., Thumar B., Schappell E., Bull C. V., Chu H. Y., Schaap-Nutt A., Buchholz U., Collins P. L., Schmidt A. C. International Maternal Pediatric Adolescent
AIDS Clinical Trials (IMPAACT) P1096 Study Group., Safety and infectivity of two doses of live-attenuated recombinant cold-passaged human parainfluenza type 3 virus vaccine rHPIV3cp45 in HPIV3-seronegative young children. Vaccine. 2013, 31 (48), 5706-5712. http://dx.doi.org/ 10.1016/j. vaccine.2013.09.046.
38. Liljeqvist S., Stahl S. Production of recombinant subunit vaccines: protein immunogens, live delivery systems and nucleic acid vaccines. J. Biotechnol. 1999, 73 (1), 1-33.
39. Alexandr A. Moisa, Ekaterina F. Kolesanova (2012). Synthetic Peptide Vaccines, Insight and Control of Infectious Disease in Global Scenario, Dr. Roy Priti (Ed.). InTech. doi: 10.5772/33496. Available from: http:// www.intechopen.com/ books/insight-and-control-of-infectious-disease-in-global-scenario/synthetic-peptide-vaccines.
40. Skwarczynski M., Toth I. Peptide-Based Subunit Nanovaccines. Curr. Drug Deliv.
2011, 8 (3), 282-289.
41. Shawan M. M. A K., Mahmud H. A., Hasan M., Parvin A., Rahman N., Rahman S. M. B. In Silico Modelling and Immunoinformatics Probing Disclose the Epitope Based PeptideVaccine Against Zika Virus Envelope Glycoprotein. Ind. J. Pharm. Biol. Res. 2014, 2 (4), 44-45.
42. Klavinskis L. S., Whitton J. L., Oldstone M. B. Molecularly engineered vaccine which expresses an immunodominant T-cell epitope induces cytotoxic T lymphocytes that confer protection from lethal virus infection. J. Virol. 1989, 63 (10), 4311-4316.
43. Kiling Y. B., Akdeste Z. M., Kog R. Q, Bagirova M., Allahverdiyev A. Synthesis and characterization of antigenic influenza A M2e protein peptide-poly(acrylic) acid bioconjugate and determination of toxicity in vitro. Bioengineeringed. 2014, 5 (6), 357362. doi: 10.4161/21655979.2014.969131.
44. Mansuroglu B., Mustafaeva Z. Characterization of water-soluble conjugates of polyacrylic acid and antigenic peptide of FMDV by size exclusion chromatography with quadruple detection. Mater Sci. Eng. C.
2012, V. 32, P. 112-118.
45. Eroglu B. 1., Budama Kilinc Y., Mustafaeva Z. Bioconjugation of Hepatitis B antigenic peptide with polymeric carriers through various carbodiimide chemistry. Turk. J. Biochem. 2011, 36 (3), 222-229.
46. Kizilbey K., Derman S., Mustafaeva Z. Poly (N-vinyl-2-pyrrolidone-co-acrylic acid): Comparing of "Traditional Heating" and "Microwave-Assisted" Free Radical Polymerization. J. Chem. Soc. Pak. 2013, 35 (4), 1191-1196.
47. Sevecen T. Biomolecule-polyelectrolyte conjugates (Masters dissertation) Yildiz Techical University, Bioengineering Department. advisor: Mustafaeva Z., Available from: Council of Higher Education Thesis Center Database. 2012, P. 1-201. (Thesis No: 316033).
48. Derman S., Mustafaeva Z. Particle size and zeta potential investigation of synthetic peptide-protein conjugates. Turkish J. Biotech. I. 2015, 40 (4), 282-289.
СУЧАСН1 П1ДХОДИ ДО ВАКЦИНАЦП ПРОТИ В1РУСУ З1КА
Ф. Кан1 П. Пелт Apaïci1
А. Карахан2 З. Мустафаева1 Б. Мамедов3
^ехшчний ушверситет, Стамбул, Туреччина 2Нащональний ушверситет, Стамбул, Туреччина 31нститут полiмерних матерiалiв Нацiональноï академи наук Азербайджану, Сумгагг
E-mail: [email protected]
Метою огляду було наголосити на важ-ливост створення високостандартизованих вакцин нового поколшня проти вiрусу З^а на основi синтетичного пептиду, ям шдуку-ють як гуморальний, так i клiтинний iмунi-тет, та усунути побiчнi ефекти традицшних вакцин. Вiрус Зiка за своïм походженням е артропоïдним, членом роду Flavivirus роди-ни Flaviviridae. Цей вiрус спричинив епiдемiï в багатьох крашах свiту у дорослих з такими виявами, як синдром Пена-Барре. Зпдно з по-вiдомленням Всесвiтньоï органiзацiï охорони здоров'я, 4 млн. омб можуть бути iнфiкованi вiрусом Зiка в Пiвнiчнiй i Швденнш Америцi. Зроблено висновок про актуальшсть розро-блення пептидних вакцин проти вiрусу Зiка нового поколiння, що е найбiльш перспектив-ним напрямом профшактики i лiкування цiеï вiрусноï iнфекцiï.
Ключовi слова: вiрус Зша, пептиднi вакцини.
СОВРЕМЕННЫЕ ПОДХОДЫ К ВАКЦИНАЦИИ ПРОТИВ ВИРУСА ЗИКА
Ф. KaH П. Пелит Араиси1 А. Kaрахан2 З. Мустафаева1 Б. Мамедов3
1Технический университет, Стамбул, Турция 2Национальный университет, Стамбул, Турция
3Институт полимерных материалов Национальной академии наук Азербайджана, Сумгаит
E-mail: [email protected]
Целью обзора было подчеркнуть важность создания высокостандартизированных вакцин нового поколения против вируса Зика на основе синтетического пептида, которые индуцируют как гуморальный, так и клеточный иммунитет, и устранить побочные эффекты традиционных вакцин. Вирус Зика по своему происхождению является артропоидным, членом рода Flavivirus семейства Flaviviridae. Вирус Зика вызвал эпидемии во многих странах мира у взрослых с такими проявлениями, как синдром Гийена-Барре. Согласно сообщению Всемирной организации здравоохранения, 4 млн. человек могут быть инфицированы вирусом Зика в Северной и Южной Америке. Сделан вывод об актуальности разработки пептидных вакцин против вируса Зика нового поколения, что является наиболее перспективным направлением профилактики и лечения этой вирусной инфекции.
Ключевые слова: вирус Зика, пептидные вакцины.
