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Population genetic structure and phylogenetic analysis of Anopheles hyrcanus (Diptera: Culicidae) inferred from DNA sequences of nuclear ITS2 and the mitochondrial COI gene in the northern part of Iran

The Anopheles hyrcanus group is distributed throughout the Oriental and Palaearctic regions and can transmit diseases such as malaria, Japanese encephalitis virus, and filariasis. This investigation marks the inaugural comprehensive study to undertake a phylogenetic analysis of the constituents of t...

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Published in:BMC infectious diseases 2024-07, Vol.24 (1), p.724-11, Article 724
Main Authors: Askari, Fatemeh, Paksa, Azim, Shahabi, Saeed, Saeedi, Shahin, Sofizadeh, Aioub, Vahedi, Mozaffar, Soltani, Aboozar
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Paksa, Azim
Shahabi, Saeed
Saeedi, Shahin
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Vahedi, Mozaffar
Soltani, Aboozar
description The Anopheles hyrcanus group is distributed throughout the Oriental and Palaearctic regions and can transmit diseases such as malaria, Japanese encephalitis virus, and filariasis. This investigation marks the inaugural comprehensive study to undertake a phylogenetic analysis of the constituents of this malaria vector group in the northeastern region of Iran, juxtaposed with documented occurrences from different areas within Iran and worldwide. Mosquitoes were collected using various methods from nine different locations in Golestan province from April to December 2023. The collected mosquitoes were identified morphologically using valid taxonomic keys. DNA was isolated using the Sambio™ Kit. COI and ITS2 primers were designed using Oligo7 and GeneRunner. PCR and purification were performed with the Qiagen kit. Subsequently, sequencing was carried out at the Mehr Mam GENE Center using an Applied Biosystems 3730XL sequencer. The nucleotide sequences were then analyzed and aligned with GenBank data using BioEdit. Kimura 2-parameter was Utilized for base substitutions. DNA models were selected based on AIC and BIC criteria. Bayesian and Maximum Likelihood trees were constructed, along with a haplotype network. Molecular diversity statistics computed using DnaSP software. In this study, a total of 819 adult mosquitoes were collected. An. hyrcanus was the second most abundant species, predominantly found in Kalaleh and Turkman counties. The sequenced and edited COI and ITS2 sequences were deposited in GenBank under specific accession numbers. Phylogenetic analyses using ML, BI, and NJ methods confirmed a monophyletic lineage for An. hyrcanus with strong support. Molecular analysis of Iranian An. hyrcanus found 11 diverse haplotypes, with the COI gene displaying low diversity. The ITS2 gene revealed two clades - one associating with Iran, Europe, and Asia; the other originating from southwestern Iran. The haplotype network showed two main groups - one from southwest Iran and the other from north Iran. Iran exhibited six distinct haplotypes, while Turkey showcased the highest diversity. An. hyrcanus in southwestern Iran exhibits a distinct haplogroup, suggesting possible subspecies differentiation. Additional studies are required to validate this phenomenon.
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This investigation marks the inaugural comprehensive study to undertake a phylogenetic analysis of the constituents of this malaria vector group in the northeastern region of Iran, juxtaposed with documented occurrences from different areas within Iran and worldwide. Mosquitoes were collected using various methods from nine different locations in Golestan province from April to December 2023. The collected mosquitoes were identified morphologically using valid taxonomic keys. DNA was isolated using the Sambio™ Kit. COI and ITS2 primers were designed using Oligo7 and GeneRunner. PCR and purification were performed with the Qiagen kit. Subsequently, sequencing was carried out at the Mehr Mam GENE Center using an Applied Biosystems 3730XL sequencer. The nucleotide sequences were then analyzed and aligned with GenBank data using BioEdit. Kimura 2-parameter was Utilized for base substitutions. DNA models were selected based on AIC and BIC criteria. 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Additional studies are required to validate this phenomenon.</description><subject>Analysis</subject><subject>Animals</subject><subject>Anopheles</subject><subject>Anopheles - classification</subject><subject>Anopheles - genetics</subject><subject>Anopheles Hyrcanus</subject><subject>Aquatic insects</subject><subject>Arbovirus diseases</subject><subject>Bayesian analysis</subject><subject>Care and treatment</subject><subject>COI</subject><subject>COI protein</subject><subject>Control</subject><subject>Culicidae</subject><subject>Cytochrome</subject><subject>Deoxyribonucleic acid</subject><subject>Diagnosis</subject><subject>Disease transmission</subject><subject>DNA</subject><subject>DNA barcoding</subject><subject>DNA sequencing</subject><subject>DNA structure</subject><subject>DNA viruses</subject><subject>DNA, Ribosomal Spacer - genetics</subject><subject>Electron Transport Complex IV - genetics</subject><subject>Encephalitis</subject><subject>Filariasis</subject><subject>Gene sequencing</subject><subject>Genes</subject><subject>Genetic analysis</subject><subject>Genetic aspects</subject><subject>Genetic structure</subject><subject>Genetic Variation</subject><subject>Genetics, Population</subject><subject>Haplotypes</subject><subject>Identification and classification</subject><subject>Iran</subject><subject>ITS2</subject><subject>Malaria</subject><subject>Mathematical models</subject><subject>Mitochondrial DNA</subject><subject>Morphology</subject><subject>Mosquito Vectors - classification</subject><subject>Mosquito Vectors - genetics</subject><subject>Mosquitoes</subject><subject>Nucleotide sequence</subject><subject>Nucleotide sequencing</subject><subject>Nucleotides</subject><subject>Pathogens</subject><subject>Phylogenetic Analysis</subject><subject>Phylogenetics</subject><subject>Phylogeny</subject><subject>Population genetics</subject><subject>Risk factors</subject><subject>Sequence Analysis, DNA</subject><subject>Statistical analysis</subject><subject>Topography</subject><subject>Tropical diseases</subject><subject>Vector-borne diseases</subject><subject>Vectors (Biology)</subject><issn>1471-2334</issn><issn>1471-2334</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2024</creationdate><recordtype>article</recordtype><sourceid>PIMPY</sourceid><sourceid>DOA</sourceid><recordid>eNqNk81uEzEQx1cIREvhBTggS1zawxbb6_0wlypK-YhUEUQLV2vWO5s42tiLvYvII_JWOElbGsQB-TCW5z8_z4w9SfKS0XPGquJNYLwqZUq5SKkseJHSR8kxEyVLeZaJxw_2R8mzEFaUsrLi8mlylEkqBKvYcfLrs-vHDgbjLFmgxcFoEgY_6mH0SMA2pF9uOnfnAgvdJphAXEsm1vVL7DCQ5cZrsGMgp5emH9DDWzIdO6NNA3hGjG3Re2xI692aXH6akIDfR7Qadxg76g7Bk9nNNd9dOCyRrM3g9NLZxhvoyHQ-2yUXUTuvdT4ab0kPftgyZh7s8-RJC13AF7f2JPn6_t3N9GN6Nf8wm06uUp2zbEhRxoYg5gXUvG5rJrCsocmklGUtKi5qyvOM1TmKutSNzApoaIXQgMDooJCdJLM9t3GwUr03a_Ab5cCo3YHzCxWzMrEo1XJdUayrIquliFRgEkTOGla3heANi6yLPasf6zU2Gu3goTuAHnqsWaqF-6EY44XIchkJp7cE72JTw6DWJmjsOrDoxqAyWgnKZZmVUfr6L-nKjT4-6FYl41-SeUn_qBYQK4hv5-LFegtVkyp-NcZktWWd_0MVV4Nro53F1sTzg4Czg4CoGfDnsIAxBDW7_vL_2vm3Qy3fa7V3IXhs75vHqNpOidpPiYoRajclalvjq4dtvw-5G4vsN5eADXU</recordid><startdate>20240723</startdate><enddate>20240723</enddate><creator>Askari, Fatemeh</creator><creator>Paksa, Azim</creator><creator>Shahabi, Saeed</creator><creator>Saeedi, Shahin</creator><creator>Sofizadeh, Aioub</creator><creator>Vahedi, Mozaffar</creator><creator>Soltani, Aboozar</creator><general>BioMed Central Ltd</general><general>BioMed Central</general><general>BMC</general><scope>CGR</scope><scope>CUY</scope><scope>CVF</scope><scope>ECM</scope><scope>EIF</scope><scope>NPM</scope><scope>AAYXX</scope><scope>CITATION</scope><scope>IOV</scope><scope>ISR</scope><scope>3V.</scope><scope>7QL</scope><scope>7T2</scope><scope>7U9</scope><scope>7X7</scope><scope>7XB</scope><scope>88E</scope><scope>8C1</scope><scope>8FI</scope><scope>8FJ</scope><scope>8FK</scope><scope>ABUWG</scope><scope>AFKRA</scope><scope>AZQEC</scope><scope>BENPR</scope><scope>C1K</scope><scope>CCPQU</scope><scope>DWQXO</scope><scope>FYUFA</scope><scope>GHDGH</scope><scope>H94</scope><scope>K9.</scope><scope>M0S</scope><scope>M1P</scope><scope>M7N</scope><scope>PIMPY</scope><scope>PQEST</scope><scope>PQQKQ</scope><scope>PQUKI</scope><scope>PRINS</scope><scope>7X8</scope><scope>5PM</scope><scope>DOA</scope><orcidid>https://orcid.org/0000-0003-0717-2561</orcidid></search><sort><creationdate>20240723</creationdate><title>Population genetic structure and phylogenetic analysis of Anopheles hyrcanus (Diptera: Culicidae) inferred from DNA sequences of nuclear ITS2 and the mitochondrial COI gene in the northern part of Iran</title><author>Askari, Fatemeh ; 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This investigation marks the inaugural comprehensive study to undertake a phylogenetic analysis of the constituents of this malaria vector group in the northeastern region of Iran, juxtaposed with documented occurrences from different areas within Iran and worldwide. Mosquitoes were collected using various methods from nine different locations in Golestan province from April to December 2023. The collected mosquitoes were identified morphologically using valid taxonomic keys. DNA was isolated using the Sambio™ Kit. COI and ITS2 primers were designed using Oligo7 and GeneRunner. PCR and purification were performed with the Qiagen kit. Subsequently, sequencing was carried out at the Mehr Mam GENE Center using an Applied Biosystems 3730XL sequencer. The nucleotide sequences were then analyzed and aligned with GenBank data using BioEdit. Kimura 2-parameter was Utilized for base substitutions. DNA models were selected based on AIC and BIC criteria. Bayesian and Maximum Likelihood trees were constructed, along with a haplotype network. Molecular diversity statistics computed using DnaSP software. In this study, a total of 819 adult mosquitoes were collected. An. hyrcanus was the second most abundant species, predominantly found in Kalaleh and Turkman counties. The sequenced and edited COI and ITS2 sequences were deposited in GenBank under specific accession numbers. Phylogenetic analyses using ML, BI, and NJ methods confirmed a monophyletic lineage for An. hyrcanus with strong support. Molecular analysis of Iranian An. hyrcanus found 11 diverse haplotypes, with the COI gene displaying low diversity. The ITS2 gene revealed two clades - one associating with Iran, Europe, and Asia; the other originating from southwestern Iran. The haplotype network showed two main groups - one from southwest Iran and the other from north Iran. Iran exhibited six distinct haplotypes, while Turkey showcased the highest diversity. An. hyrcanus in southwestern Iran exhibits a distinct haplogroup, suggesting possible subspecies differentiation. Additional studies are required to validate this phenomenon.</abstract><cop>England</cop><pub>BioMed Central Ltd</pub><pmid>39044181</pmid><doi>10.1186/s12879-024-09626-0</doi><tpages>11</tpages><orcidid>https://orcid.org/0000-0003-0717-2561</orcidid><oa>free_for_read</oa></addata></record>
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1471-2334
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subjects Analysis
Animals
Anopheles
Anopheles - classification
Anopheles - genetics
Anopheles Hyrcanus
Aquatic insects
Arbovirus diseases
Bayesian analysis
Care and treatment
COI
COI protein
Control
Culicidae
Cytochrome
Deoxyribonucleic acid
Diagnosis
Disease transmission
DNA
DNA barcoding
DNA sequencing
DNA structure
DNA viruses
DNA, Ribosomal Spacer - genetics
Electron Transport Complex IV - genetics
Encephalitis
Filariasis
Gene sequencing
Genes
Genetic analysis
Genetic aspects
Genetic structure
Genetic Variation
Genetics, Population
Haplotypes
Identification and classification
Iran
ITS2
Malaria
Mathematical models
Mitochondrial DNA
Morphology
Mosquito Vectors - classification
Mosquito Vectors - genetics
Mosquitoes
Nucleotide sequence
Nucleotide sequencing
Nucleotides
Pathogens
Phylogenetic Analysis
Phylogenetics
Phylogeny
Population genetics
Risk factors
Sequence Analysis, DNA
Statistical analysis
Topography
Tropical diseases
Vector-borne diseases
Vectors (Biology)
title Population genetic structure and phylogenetic analysis of Anopheles hyrcanus (Diptera: Culicidae) inferred from DNA sequences of nuclear ITS2 and the mitochondrial COI gene in the northern part of Iran
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