Literature DB >> 29985788

Case of Microcephaly after Congenital Infection with Asian Lineage Zika Virus, Thailand.

Thidathip Wongsurawat, Niracha Athipanyasilp, Piroon Jenjaroenpun, Se-Ran Jun, Bualan Kaewnapan, Trudy M Wassenaar, Nuttawut Leelahakorn, Nasikarn Angkasekwinai, Wannee Kantakamalakul, David W Ussery, Ruengpung Sutthent, Intawat Nookaew, Navin Horthongkham.   

Abstract

We sequenced the virus genomes from 3 pregnant women in Thailand with Zika virus diagnoses. All had infections with the Asian lineage. The woman infected at gestational week 9, and not those infected at weeks 20 and 24, had a fetus with microcephaly. Asian lineage Zika viruses can cause microcephaly.

Entities:  

Keywords:  zzm321990 Asian lineagezzm321990 ; zzm321990 Thailandzzm321990 ; zzm321990 Zika viruszzm321990 ; zzm321990 birth defectszzm321990 ; zzm321990 congenital Zika virus infection with microcephalyzzm321990 ; zzm321990 congenital infectionzzm321990 ; zzm321990 genome sequencezzm321990 ; zzm321990 microcephalyzzm321990 ; zzm321990 pregnancyzzm321990 ; zzm321990 vector-borne infectionszzm321990 ; zzm321990 viruseszzm321990

Mesh:

Year:  2018        PMID: 29985788      PMCID: PMC6106416          DOI: 10.3201/eid2409.180416

Source DB:  PubMed          Journal:  Emerg Infect Dis        ISSN: 1080-6040            Impact factor:   6.883


Although Zika virus has circulated in Asia longer than in the Americas, only 3 confirmed cases of congenital Zika virus infection with microcephaly have been reported in Asia (2 Thailand, 1 Vietnam) (). As of June 2018, the genomic sequences of the viruses from these 3 cases have not been reported; thus, whether these cases were caused by an Asian lineage or an imported American lineage is unknown. Several mechanisms involving virus genome sequences have been proposed to explain how Zika virus might cause microcephaly (). Liang et al. () showed in vitro that replication of both the African (strains MR766 and IbH30656) and American (strain H/PF/2013) lineage viruses suppress Akt phosphorylation; this suppression is caused by an accumulation of mutations in the Zika virus genome that increase the number of phosphorylation sites on virus proteins that compete with host proteins for phosphorylation. Yuan et al. proposed that a serine to asparagine substitution (S17N) in the premembrane protein (stably conserved in the American lineage but not in the Asian) contributes to the onset of microcephaly (). An increased frequency of retinoic acid response elements in the American lineage genome versus the Asian lineage genome has also been observed (). We question these explanations because we report a confirmed case of congenital Zika virus infection with microcephaly in Thailand caused by an Asian lineage virus. We sequenced 7 Zika virus genomes obtained from 5 patients, including 3 pregnant women (PW1–3), in 2016 and 2017. PW1 had fever, maculopapular rash, and mild conjunctivitis at 24 weeks of gestation. Her urine sample was positive for Zika virus (BKK05, GenBank accession no. MG807647), and she gave birth to an infant without birth defects at full term. PW2 had a suspected Zika virus infection at 9 weeks’ gestation with high fever, maculopapular rash, and mild conjunctivitis. At 16 weeks, a sample of the amniotic fluid was positive for Zika virus (BKK03, GenBank accession no. MG548660). The pregnancy was terminated at 17 weeks. Autopsy of the fetus demonstrated a head circumference of 12.5 cm (less than the third percentile for this gestational age); Zika virus was detected in the brain (BKK02, GenBank accession no. MF996804) and placenta (BKK04, GenBank accession no. MG548661). No other etiologic agents associated with birth defects (cytomegalovirus, herpes simplex virus types 1 and 2, rubella virus, syphilis virus, Toxoplasma gondii, Treponema pallidum) were detectable by real-time PCR. PW2 had detectable hepatitis B viral surface antigen but no concurrent medical conditions. These findings suggest that Zika virus was the causative agent of this case of microcephaly. PW3 had a maculopapular rash without fever or conjunctivitis and received a Zika virus diagnosis at 20 weeks’ gestation. Her urine sample was positive for Zika virus (BKK07, GenBank accession no. MH013290), and she gave birth to a healthy infant at full term. The last 2 samples were from a 6-year-old child with mild fever and maculopapular rash (BKK06, GenBank accession no. MG807647) and a 64-year-old man with fever and maculopapular rash (BKK01, GenBank accession no. KY272987). We retrieved 121 nonredundant Zika virus genomes (444 viruses, 99.9% nucleic acid identity cutoff) from GenBank to compare these isolates by phylogenetic analysis. All 7 BKK Zika virus isolates grouped within the Asian lineage (Figure). Virus from the amniotic fluid (BKK03), fetal brain (BKK02), and placenta (BKK04) of PW2 closely resembled each other (5 mismatches in BKK04 and 6 in BKK03, overall 99.898% identity). These 3 isolates were separated on the tree from their closest neighbor, a 2016 isolate from Singapore, by 40 mismatches. The number of retinoic acid response elements and predicted phosphorylation sites in BKK01–BKK07 was the same as the number in other Asian lineage Zika viruses (). Also, the S17N substitution in premembrane was absent in all 7 isolates. Thus, all 3 proposed mechanisms failed to explain the case of congenital Zika virus infection with microcephaly in PW2. This case clinically resembled that of a woman in Finland infected during week 11 of pregnancy while traveling in Mexico, Guatemala, and Belize (); in that case, Zika virus was detected in the brain of the aborted fetus at week 21.
Figure

Maximum-likelihood phylogenetic analysis of nonredundant Zika virus genomes including 7 isolates from patients in Thailand, 2016–2017, and amino acid changes corresponding with 3 evolutionary events (). Circles indicate the Zika virus isolates from this report; the Zika virus strains used by Liang et al. () are indicated by asterisks and Yuan et al. () by squares. The key amino acid residue changes corresponding with the 3 evolutionary events () are shown, and the conserved amino acid substitution S17N, present in the American lineage but not in the other lineages, is in bold. The amino acid residues of the 7 isolates from this report are identical to those of the other Asian lineage isolates. C, capsid; prM, premembrane; NS, nonstructural protein. Scale bar indicates nucleotide changes per basepair.

Maximum-likelihood phylogenetic analysis of nonredundant Zika virus genomes including 7 isolates from patients in Thailand, 2016–2017, and amino acid changes corresponding with 3 evolutionary events (). Circles indicate the Zika virus isolates from this report; the Zika virus strains used by Liang et al. () are indicated by asterisks and Yuan et al. () by squares. The key amino acid residue changes corresponding with the 3 evolutionary events () are shown, and the conserved amino acid substitution S17N, present in the American lineage but not in the other lineages, is in bold. The amino acid residues of the 7 isolates from this report are identical to those of the other Asian lineage isolates. C, capsid; prM, premembrane; NS, nonstructural protein. Scale bar indicates nucleotide changes per basepair. The 3 cases in pregnant women described here support the hypothesis that the timing of Zika virus infection during pregnancy might be a key contributor to the development of microcephaly during congenital Zika virus infection. PW2 was infected around week 9 of gestation, during embryonic neurulation and cortical neurogenesis, which lay the foundation for the developing brain. Infection during week 20 (for PW3) and 24 (for PW1) of gestation did not led to microcephaly. Our observations are in agreement with reports involving American lineage Zika viruses that show a high risk for microcephaly when infection occurs before week 21 (), during weeks 7–14 (), or during the first trimester (–). Our findings show that Zika viruses circulating in Asia can cause microcephaly, just like American strains.
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1.  Preliminary Report of Microcephaly Potentially Associated with Zika Virus Infection During Pregnancy - Colombia, January-November 2016.

Authors:  Esther Liliana Cuevas; Van T Tong; Nathaly Rozo; Diana Valencia; Oscar Pacheco; Suzanne M Gilboa; Marcela Mercado; Christina M Renquist; Maritza González; Elizabeth C Ailes; Carolina Duarte; Valerie Godoshian; Christina L Sancken; Angelica Maria Rico Turca; Dinorah L Calles; Martha Ayala; Paula Morgan; Erika Natalia Tolosa Perez; Hernan Quijada Bonilla; Ruben Caceres Gomez; Ana Carolina Estupiñan; Maria Luz Gunturiz; Dana Meaney-Delman; Denise J Jamieson; Margaret A Honein; Martha Lucia Ospina Martínez
Journal:  MMWR Morb Mortal Wkly Rep       Date:  2016-12-16       Impact factor: 17.586

2.  Ultrasonographic observations of the fetal brain in the first 100 pregnant women with Zika virus infection in Trinidad and Tobago.

Authors:  Karen Sohan; Cathy A Cyrus
Journal:  Int J Gynaecol Obstet       Date:  2017-09-22       Impact factor: 3.561

3.  Serial Head and Brain Imaging of 17 Fetuses With Confirmed Zika Virus Infection in Colombia, South America.

Authors:  Miguel Parra-Saavedra; Jennita Reefhuis; Juan Pablo Piraquive; Suzanne M Gilboa; Martina L Badell; Cynthia A Moore; Marcela Mercado; Diana Valencia; Denise J Jamieson; Mauricio Beltran; Magda Sanz-Cortes; Ana Maria Rivera-Casas; Mayel Yepez; Guido Parra; Martha Ospina Martinez; Margaret A Honein
Journal:  Obstet Gynecol       Date:  2017-07       Impact factor: 7.661

4.  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.

Authors:  Wanderson Kleber de Oliveira; Juan Cortez-Escalante; Wanessa Tenório Gonçalves Holanda De Oliveira; Greice Madeleine Ikeda do Carmo; Cláudio Maierovitch Pessanha Henriques; Giovanini Evelim Coelho; Giovanny Vinícius Araújo de França
Journal:  MMWR Morb Mortal Wkly Rep       Date:  2016-03-11       Impact factor: 17.586

5.  Zika Virus NS4A and NS4B Proteins Deregulate Akt-mTOR Signaling in Human Fetal Neural Stem Cells to Inhibit Neurogenesis and Induce Autophagy.

Authors:  Qiming Liang; Zhifei Luo; Jianxiong Zeng; Weiqiang Chen; Suan-Sin Foo; Shin-Ae Lee; Jianning Ge; Su Wang; Steven A Goldman; Berislav V Zlokovic; Zhen Zhao; Jae U Jung
Journal:  Cell Stem Cell       Date:  2016-08-11       Impact factor: 24.633

6.  Zika Virus Infection with Prolonged Maternal Viremia and Fetal Brain Abnormalities.

Authors:  Rita W Driggers; Cheng-Ying Ho; Essi M Korhonen; Suvi Kuivanen; Anne J Jääskeläinen; Teemu Smura; Avi Rosenberg; D Ashley Hill; Roberta L DeBiasi; Gilbert Vezina; Julia Timofeev; Fausto J Rodriguez; Lev Levanov; Jennifer Razak; Preetha Iyengar; Andrew Hennenfent; Richard Kennedy; Robert Lanciotti; Adre du Plessis; Olli Vapalahti
Journal:  N Engl J Med       Date:  2016-03-30       Impact factor: 91.245

7.  A single mutation in the prM protein of Zika virus contributes to fetal microcephaly.

Authors:  Ling Yuan; Xing-Yao Huang; Zhong-Yu Liu; Feng Zhang; Xing-Liang Zhu; Jiu-Yang Yu; Xue Ji; Yan-Peng Xu; Guanghui Li; Cui Li; Hong-Jiang Wang; Yong-Qiang Deng; Menghua Wu; Meng-Li Cheng; Qing Ye; Dong-Yang Xie; Xiao-Feng Li; Xiangxi Wang; Weifeng Shi; Baoyang Hu; Pei-Yong Shi; Zhiheng Xu; Cheng-Feng Qin
Journal:  Science       Date:  2017-09-28       Impact factor: 47.728

Review 8.  An Update on Zika Virus in Asia.

Authors:  Sl Ki Lim; Jacqueline Kyungah Lim; In Kyu Yoon
Journal:  Infect Chemother       Date:  2017-06

9.  Suggested mechanisms for Zika virus causing microcephaly: what do the genomes tell us?

Authors:  Se-Ran Jun; Trudy M Wassenaar; Visanu Wanchai; Preecha Patumcharoenpol; Intawat Nookaew; David W Ussery
Journal:  BMC Bioinformatics       Date:  2017-12-28       Impact factor: 3.169

10.  Vital Signs: Update on Zika Virus-Associated Birth Defects and Evaluation of All U.S. Infants with Congenital Zika Virus Exposure - U.S. Zika Pregnancy Registry, 2016.

Authors:  Megan R Reynolds; Abbey M Jones; Emily E Petersen; Ellen H Lee; Marion E Rice; Andrea Bingham; Sascha R Ellington; Nicole Evert; Sarah Reagan-Steiner; Titilope Oduyebo; Catherine M Brown; Stacey Martin; Nina Ahmad; Julu Bhatnagar; Jennifer Macdonald; Carolyn Gould; Anne D Fine; Kara D Polen; Heather Lake-Burger; Christina L Hillard; Noemi Hall; Mahsa M Yazdy; Karnesha Slaughter; Jamie N Sommer; Alys Adamski; Meghan Raycraft; Shannon Fleck-Derderian; Jyoti Gupta; Kimberly Newsome; Madelyn Baez-Santiago; Sally Slavinski; Jennifer L White; Cynthia A Moore; Carrie K Shapiro-Mendoza; Lyle Petersen; Coleen Boyle; Denise J Jamieson; Dana Meaney-Delman; Margaret A Honein
Journal:  MMWR Morb Mortal Wkly Rep       Date:  2017-04-07       Impact factor: 17.586

  10 in total
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Review 1.  Using Macaques to Address Critical Questions in Zika Virus Research.

Authors:  Dawn M Dudley; Matthew T Aliota; Emma L Mohr; Christina M Newman; Thaddeus G Golos; Thomas C Friedrich; David H O'Connor
Journal:  Annu Rev Virol       Date:  2019-06-10       Impact factor: 10.431

2.  Absence of Evidence of Zika Virus Infection in Cord Blood and Urine from Newborns with Congenital Abnormalities, Indonesia.

Authors:  Nina Dwi Putri; Rama Dhenni; Setyo Handryastuti; Edison Johar; Chairin Nisa Ma'roef; Araniy Fadhilah; Adhi Teguh Perma Iskandar; Ari Prayitno; Mulya Rahma Karyanti; Hindra Irawan Satari; Niphidiah Jumiyanti; Yuni Yudha Aprilia; Ida Yus Sriyani; Yora Permata Dewi; Frilasita A Yudhaputri; Dodi Safari; Sri Rezeki Hadinegoro; Ronald Rosenberg; Ann M Powers; Khin Saw Aye Myint
Journal:  Am J Trop Med Hyg       Date:  2020-04       Impact factor: 2.345

3.  Genome Sequences of Zika Virus Strains Recovered from Amniotic Fluid, Placenta, and Fetal Brain of a Microcephaly Patient in Thailand, 2017.

Authors:  Thidathip Wongsurawat; Piroon Jenjaroenpun; Niracha Athipanyasilp; Bualan Kaewnapan; Nattawat Leelahakorn; Nasikarn Angkasekwinai; Wannee Kantakamalakul; Ruengpung Sutthent; David W Ussery; Navin Horthongkham; Intawat Nookaew
Journal:  Microbiol Resour Announc       Date:  2018-09-20

4.  Molecular Epidemiology and Genetic Diversity of Zika Virus from Field-Caught Mosquitoes in Various Regions of Thailand.

Authors:  Atchara Phumee; Rome Buathong; Rungfar Boonserm; Proawpilart Intayot; Nucharat Aungsananta; Akanitt Jittmittraphap; Yutthana Joyjinda; Supaporn Wacharapluesadee; Padet Siriyasatien
Journal:  Pathogens       Date:  2019-03-06

5.  Seroprevalence of Zika and Dengue Virus Antibodies among Migrant Workers, Taiwan, 2017.

Authors:  Guey Chuen Perng; Tzu-Chuan Ho; Hsin-I Shih; Chia-Hua Lee; Pei-Wen Huang; Chih-Huan Chung; Nai-Ying Ko; Wen-Chien Ko; Yu-Wen Chien
Journal:  Emerg Infect Dis       Date:  2019-04       Impact factor: 6.883

6.  Increased growth ability and pathogenicity of American- and Pacific-subtype Zika virus (ZIKV) strains compared with a Southeast Asian-subtype ZIKV strain.

Authors:  Yasuhiro Kawai; Eri Nakayama; Kenta Takahashi; Satoshi Taniguchi; Ken-Ichi Shibasaki; Fumihiro Kato; Takahiro Maeki; Tadaki Suzuki; Shigeru Tajima; Masayuki Saijo; Chang-Kweng Lim
Journal:  PLoS Negl Trop Dis       Date:  2019-06-06

7.  High correlation between Zika virus NS1 antibodies and neutralizing antibodies in selected serum samples from normal healthy Thais.

Authors:  Wannapa Sornjai; Suwipa Ramphan; Nitwara Wikan; Prasert Auewarakul; Duncan R Smith
Journal:  Sci Rep       Date:  2019-09-18       Impact factor: 4.379

8.  Replication Variance of African and Asian Lineage Zika Virus Strains in Different Cell Lines, Mosquitoes and Mice.

Authors:  Tey Putita Ou; Heidi Auerswald; Saraden In; Borin Peng; Senglong Pang; Sébastien Boyer; Rithy Choeung; Myrielle Dupont-Rouzeyrol; Philippe Dussart; Veasna Duong
Journal:  Microorganisms       Date:  2021-06-09

Review 9.  The Asian Lineage of Zika Virus: Transmission and Evolution in Asia and the Americas.

Authors:  Tao Hu; Juan Li; Michael J Carr; Sebastián Duchêne; Weifeng Shi
Journal:  Virol Sin       Date:  2019-01-25       Impact factor: 4.327

10.  Zika virus infection as a cause of congenital brain abnormalities and Guillain-Barré syndrome: A living systematic review.

Authors:  Michel Jacques Counotte; Kaspar Walter Meili; Katayoun Taghavi; Guilherme Calvet; James Sejvar; Nicola Low
Journal:  F1000Res       Date:  2019-08-14
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