Applications of massively parallel sequencing in forensic genetics

Abstract Massively parallel sequencing, also referred to as next-generation sequencing, has positively changed DNA analysis, allowing further advances in genetics. Its capability of dealing with low quantity/damaged samples makes it an interesting instrument for forensics. The main advantage of MPS...

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Main Authors: Thássia Mayra Telles Carratto, Vitor Matheus Soares Moraes, Tamara Soledad Frontanilla Recalde, Maria Luiza Guimarães de Oliveira, Celso Teixeira Mendes-Junior
Format: Article
Language:English
Published: Sociedade Brasileira de Genética 2022-09-01
Series:Genetics and Molecular Biology
Subjects:
Online Access:http://www.scielo.br/scielo.php?script=sci_arttext&pid=S1415-47572022000400105&tlng=en
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author Thássia Mayra Telles Carratto
Vitor Matheus Soares Moraes
Tamara Soledad Frontanilla Recalde
Maria Luiza Guimarães de Oliveira
Celso Teixeira Mendes-Junior
author_facet Thássia Mayra Telles Carratto
Vitor Matheus Soares Moraes
Tamara Soledad Frontanilla Recalde
Maria Luiza Guimarães de Oliveira
Celso Teixeira Mendes-Junior
author_sort Thássia Mayra Telles Carratto
collection DOAJ
description Abstract Massively parallel sequencing, also referred to as next-generation sequencing, has positively changed DNA analysis, allowing further advances in genetics. Its capability of dealing with low quantity/damaged samples makes it an interesting instrument for forensics. The main advantage of MPS is the possibility of analyzing simultaneously thousands of genetic markers, generating high-resolution data. Its detailed sequence information allowed the discovery of variations in core forensic short tandem repeat loci, as well as the identification of previous unknown polymorphisms. Furthermore, different types of markers can be sequenced in a single run, enabling the emergence of DIP-STRs, SNP-STR haplotypes, and microhaplotypes, which can be very useful in mixture deconvolution cases. In addition, the multiplex analysis of different single nucleotide polymorphisms can provide valuable information about identity, biogeographic ancestry, paternity, or phenotype. DNA methylation patterns, mitochondrial DNA, mRNA, and microRNA profiling can also be analyzed for different purposes, such as age inference, maternal lineage analysis, body-fluid identification, and monozygotic twin discrimination. MPS technology also empowers the study of metagenomics, which analyzes genetic material from a microbial community to obtain information about individual identification, post-mortem interval estimation, geolocation inference, and substrate analysis. This review aims to discuss the main applications of MPS in forensic genetics.
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spelling doaj.art-a0f79d630a9d45999a4c0897a2b6dbf92022-12-22T04:03:26ZengSociedade Brasileira de GenéticaGenetics and Molecular Biology1678-46852022-09-01453 suppl 110.1590/1678-4685-gmb-2022-0077Applications of massively parallel sequencing in forensic geneticsThássia Mayra Telles CarrattoVitor Matheus Soares MoraesTamara Soledad Frontanilla RecaldeMaria Luiza Guimarães de OliveiraCelso Teixeira Mendes-Juniorhttps://orcid.org/0000-0002-7337-1203Abstract Massively parallel sequencing, also referred to as next-generation sequencing, has positively changed DNA analysis, allowing further advances in genetics. Its capability of dealing with low quantity/damaged samples makes it an interesting instrument for forensics. The main advantage of MPS is the possibility of analyzing simultaneously thousands of genetic markers, generating high-resolution data. Its detailed sequence information allowed the discovery of variations in core forensic short tandem repeat loci, as well as the identification of previous unknown polymorphisms. Furthermore, different types of markers can be sequenced in a single run, enabling the emergence of DIP-STRs, SNP-STR haplotypes, and microhaplotypes, which can be very useful in mixture deconvolution cases. In addition, the multiplex analysis of different single nucleotide polymorphisms can provide valuable information about identity, biogeographic ancestry, paternity, or phenotype. DNA methylation patterns, mitochondrial DNA, mRNA, and microRNA profiling can also be analyzed for different purposes, such as age inference, maternal lineage analysis, body-fluid identification, and monozygotic twin discrimination. MPS technology also empowers the study of metagenomics, which analyzes genetic material from a microbial community to obtain information about individual identification, post-mortem interval estimation, geolocation inference, and substrate analysis. This review aims to discuss the main applications of MPS in forensic genetics.http://www.scielo.br/scielo.php?script=sci_arttext&pid=S1415-47572022000400105&tlng=enNext-Generation Sequencing (NGS)DNA analysisRNA analysismethylationgenetic polymorphisms
spellingShingle Thássia Mayra Telles Carratto
Vitor Matheus Soares Moraes
Tamara Soledad Frontanilla Recalde
Maria Luiza Guimarães de Oliveira
Celso Teixeira Mendes-Junior
Applications of massively parallel sequencing in forensic genetics
Genetics and Molecular Biology
Next-Generation Sequencing (NGS)
DNA analysis
RNA analysis
methylation
genetic polymorphisms
title Applications of massively parallel sequencing in forensic genetics
title_full Applications of massively parallel sequencing in forensic genetics
title_fullStr Applications of massively parallel sequencing in forensic genetics
title_full_unstemmed Applications of massively parallel sequencing in forensic genetics
title_short Applications of massively parallel sequencing in forensic genetics
title_sort applications of massively parallel sequencing in forensic genetics
topic Next-Generation Sequencing (NGS)
DNA analysis
RNA analysis
methylation
genetic polymorphisms
url http://www.scielo.br/scielo.php?script=sci_arttext&pid=S1415-47572022000400105&tlng=en
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