Sains Malaysiana 51(12)(2022):
4019-4030
http://doi.org/10.17576/jsm-2022-5112-12
A Review
of Mitochondrial SNP Determination using Allele-Specific PCR in Forensic
Identification
(Suatu Tinjauan Penentuan SNP Mitokondria menggunakan PCR Khusus-Alel dalam Pengecaman Forensik)
SHALINI PARTHIPAN, MOHITHA SANDRASAGRAN & SERI
MIRIANTI ISHAR*
Forensic Science Program, Faculty of Health Sciences,
Forensics UKM, Basement 1 PTSL, Universiti Kebangsaan Malaysia, 43600 UKM Bangi,
Selangor Darul Ehsan, Malaysia
Received: 9 May 2022/Accepted: 12 August 2022
Abstract
Allele-specific
polymerase chain reaction (AS-PCR) is a rapid and cost-effective single
nucleotide polymorphism (SNP) genotyping method compared to multiplex or
real-time PCR. The SNPs occurring in mitochondrial DNA (mtSNPs)
is the most abundant polymorphism in humans and can be used
in human identification involving mass fatality incidents. Nevertheless, the application of AS-PCR has yet to be
widely applicable in forensic investigations because this method requires
further development due to its limitations. This review aims to relate the
applications of AS-PCR, the combination of AS-PCR with other PCR techniques and
improvements imposed on this technique in past studies. A narrative literature
review was carried out over 70 studies related to the mtDNA,
SNP, AS-PCR, and forensic DNA. The findings suggested that AS-PCR with new
adaptations in technology such as incorporating additional mismatch, choosing
allele-specific primer with either common forward or reverse, gel free
real-time AS-PCR analysis, and usage of fluorescence probes can improve the
specificity of SNP genotyping in forensic applications. This review concludes
that AS-PCR and its combination with other improvised techniques can be applied
in human identification to successfully analyze degraded or low quantity samples. Nevertheless, development of more SNP loci is
required to implement AS-PCR in human identification to match the current gold
standard STR typing method.
Keywords:
Allele-specific PCR; human identification; mitochondrial DNA; single nucleotide
polymorphism
Abstrak
Tindak balas rantai polimerase khusus alel (AS-PCR) merupakan kaedah
pengecapjarian polimorfisme nukleotida tunggal (SNP) yang cepat dan murah
berbanding multipleks PCR atau tindak balas berantai polimerase masa nyata. SNP
berlaku dalam DNA mitokondria (mtSNPs) adalah polimorfisme yang paling banyak
diperhatikan pada manusia dan boleh digunakan untuk pengecaman mangsa dari
bencana. Namun demikian, kaedah PCR khusus alel masih belum dipraktikkan secara
meluas dalam kajian forensik kerana beberapa had AS-PCR menyebabkan kaedah ini
masih memerlukan penambahbaikan seterusnya. Oleh yang demikian, kajian ini
bertujuan untuk menghubungkan beberapa aplikasi AS-PCR, gabungan AS-PCR dengan
teknik lain dan penambahbaikan yang dilakukan terhadap kaedah ini daripada
kajian lepas. Tinjauan naratif ini dijalankan terhadap lebih daripada 70 kajian
berdasarkan kata kunci mtDNA, SNP, AS-PCR dan DNA forensik. Hasil tinjauan
mencadangkan bahawa AS-PCR dengan penyesuaian baharu dalam kaedah tersebut
seperti menambahkan bes ketidaksepadan dalam pencetus khusus alel, pemilihan
pencetus umum daripada pencetus kehadapan atau berbalik, AS-PCR dengan analisis
masa nyata bebas daripada penggunaan gel serta penggunaan prob pendarfluor
boleh meningkatkan kekhususan AS-PCR terhadap aplikasi forensik. Kesimpulannya,
AS-PCR dengan gabungan beberapa teknik penambahbaikan boleh digunakan untuk
menganalisis sampel manusia terurai atau berkuantiti DNA rendah daripada tempat
kejadian. Namun demikian, pembangunan lebih banyak lokus SNP harus dilakukan
untuk mempraktikkan kaedah AS-PCR dalam pengecaman manusia supaya kaedah ini
sepadan dengan pengecapjarian STR semasa.
Kata kunci:
DNA mitokondria; PCR khusus alel; pengecaman manusia; polimorfisme nukleotida
tunggal
REFERENCES
Afzal,
M., Naeem, M.A., Ahmed, S., Amin, N., Rahim, A., Munawar, M., Ishaq, M.,
Rathore, A. & Maria, K. 2022. Noninvasive prenatal testing of
beta-thalassemia for common Pakistani mutations: A comparative study using
cell-free fetal DNA from maternal plasma and chorionic villus sampling. Hematology 27(1): 353-359.
Alonso, A.,
Martín, P., Albarrán, C., García, P., Fernández De Simón, L., Iturralde, M.J.,
Fernández-Rodríguez, A., Atienza, I., Capilla, J., García-Hirschfeld, J.,
Martínez, P., Vallejo, G., García, O., García, E., Real, P., Álvarez, D., León,
A. & Sancho, M. 2005. Challenges of
DNA profiling in mass disaster investigations. Croatian Medical Journal 46(4): 540-548.
Alyethodi, R.R.,
Singh, U., Kumar, S., Alex, R., Deb, R., Sengar, G.S., Raja, T.V. &
Prakash, B. 2018. T-ARMS PCR genotyping of SNP rs445709131 using thermostable
strand displacement polymerase. BMC Research Notes 11(1): 1-5.
Ambers, A.D.,
Churchill, J.D., King, J.L., Stoljarova, M., Gill-King, H., Assidi, M.,
Abu-Elmagd, M., Buhmeida, A. & Budowle, B. 2016. More comprehensive forensic genetic marker analyses for accurate
human remains identification using massively parallel DNA sequencing. BMC
Genomics 17(Suppl 9): 21-30.
Amorim, A.,
Fernandes, T. & Taveira, N. 2019.
Mitochondrial DNA in human identification: A review. PeerJ 7: e7314.
Asari, M.,
Watanabe, S., Matsubara, K., Shiono, H. & Shimizu, K. 2009. Single
nucleotide polymorphism genotyping by mini-primer allele-specific amplification
with universal reporter primers for identification of degraded DNA. Analytical
Biochemistry 386(1): 85-90.
Avanus, K. &
Altinel, A. 2017. Comparison of allele-specific PCR, created restriction-site
PCR, and PCR with primer-introduced restriction analysis methods used for
screening complex vertebral malformation carriers in Holstein cattle. Journal
of Veterinary Science 18(4): 465-470.
Barua, S., Bai,
J., Kelly, P.J., Hanzlicek, G., Noll, L., Johnson, C., Yin, J.H. & Wang, C.
2021. Identification of the SARS-CoV-2 Delta variant C22995A using a
high-resolution melting curve RT-FRET-PCR. Emerging Microbes and Infections 11(1): 14-17.
Bogenhagen, D.F.
2012. Mitochondrial DNA nucleoid structure. Biochimica et Biophysica Acta -
Gene Regulatory Mechanisms 1819: 914-920.
Budiarto, B.R.,
Azamris & Desriani. 2017. Modified allele-specific PCR improves HER2
Ile655Val detection by reducing genotyping errors. Applied Cancer Research 37(1): 1-12.
Bui, M. & Liu,
Z. 2009. Simple allele-discriminating PCR for cost-effective and rapid
genotyping and mapping. Plant Methods 5(1): 1-8.
Butler, J.M. 2012.
Y-Chromosome DNA testing. Advanced Topics in Forensic DNA Typing:
Methodology. London: Academic Press. pp. 371-403.
Chubarov, A.S.,
Oscorbin, I.P., Filipenko, M.L., Lomzov, A.A. & Pyshnyi, D.V. 2020. Allele-specific PCR for KRAS mutation
detection using phosphoryl guanidine modified primers. Diagnostics 10(11): 1-14.
Corach, D. 2017.
New perspectives in mass disaster victim identification assisted by DNA typing
and forensic genomics. Molecular Diagnostics. 3rd ed,
Elsevier Ltd. pp. 395-405.
Doi, Y., Yamamoto,
Y., Inagaki, S., Shigeta, Y., Miyaishi, S. & Ishizu, H. 2004. A new method for ABO genotyping using a
multiplex single-base primer extension reaction and its application to forensic
casework samples. Legal Medicine 6(4): 213-223.
Elson, J.L.,
Samuels, D.C., Turnbull, D.M. & Chinnery, P.F. 2001. Random intracellular
drift explains the clonal expansion of mitochondrial DNA mutations with age. American
Journal of Human Genetics 68(3): 802-806.
Finning, K.,
Martin, P., Summers, J. & Daniels, G. 2007. Fetal genotyping for the K
(Kell) and Rh C, c, and E blood groups on cell-free fetal DNA in maternal
plasma. Transfusion 47(11): 2126-2133.
Fonseca, P.A.S.,
Rosse, I.C., DeMiranda, M., Machado, M.A., Verneque, R.S., Peixoto, M.G.C.D.
& Carvalho, M.R.S. 2013. A new
tetra-primer ARMS-PCR for genotyping bovine kappa-casein polymorphisms. Genetics
and Molecular Research 12(4): 6521-6526.
Fungtammasan, A.,
Ananda, G., Hile, S.E., Su, M.S.W., Sun, C., Harris, R., Medvedev, P., Eckert,
K. & Makova, K.D. 2015. Accurate typing of short tandem repeats from
genome-wide sequencing data and its applications. Genome Research 125(5): 736-749.
Gaudet, M., Fara,
A.G., Beritognolo, I. & Sabatti, M. 2009. Allele-specific PCR in SNP
genotyping. Methods in Molecular Biology 578(4): 415-424.
Gayden, T.,
Regueiro, M., Martinez, L., Cadenas, A.M. & Herrera, R.J. 2008. Human
Y-chromosome haplotyping by allele-specific polymerase chain reaction. Electrophoresis 29(11): 2419-2423.
Green, M.R. &
Sambrook, J. 2019. Analysis of DNA by agarose gel electrophoresis. Cold
Spring Harbor Protocols 2019(1): 6-15.
Hill, C., Soares,
P., Mormina, M., Macaulay, V., Clarke, D., Blumbach, P.B., Vizuete-Forster, M.,
Forster, P., Bulbeck, D., Oppenheimer, S. & Richards, M. 2007. A
mitochondrial stratigraphy for Island Southeast Asia. American Journal of
Human Genetics 80(1): 29-43.
Huszar, T.I.,
Bodmer, W.F., Hutnik, K., Wetton, J.H. & Jobling, M.A. 2022. Sequencing of
autosomal, mitochondrial and Y-chromosomal forensic markers in the people of
the British Isles cohort detects population structure dominated by
patrilineages. Forensic Science International: Genetics 59: 102725.
Imyanitov, E.N.,
Buslov, K.G., Suspitsin, E.N., Kuligina, E.S., Belogubova, E.V., Grigoriev,
M.Y., Togo, A.V. & Hanson, K.P. 2002. Improved reliability of
allele-specific PCR. BioTechniques 33(3): 484-490.
Ishar, S.M. &
Din, R.D.R. 2018. Optimization of allele specific pcr for the development of
human mitochondrial DNA typing method. Biotechnology 17(3-4): 151-157.
Jha, C.K., Mir,
R., Elfaki, I., Javid, J., Babakr, A.T., Banu, S. & Chahal, S.M.S. 2019.
Evaluation of the association of omentin 1 rs2274907 A>T and rs2274908
G>A gene polymorphisms with coronary artery disease in Indian population: A
case control study. Journal of Personalized Medicine 9(2): 30.
Kalendar, R.,
Baidyussen, A., Serikbay, D., Zotova, L., Khassanova, G., Kuzbakova, M.,
Jatayev, S., Hu, Y.G., Schramm, C., Anderson, P.A., Jenkins, C.L.D., Soole,
K.L. & Shavrukov, Y. 2022. Modified “Allele-Specific qPCR” method for SNP
genotyping based on FRET. Frontiers in Plant Science 12: 1-16.
Kayser, M. 2017.
Forensic use of Y-chromosome DNA: A general overview. Human Genetics 136(5): 621-635.
Kilgannon, C.
2021. 9/11 victims are still being identified, 20 years later - The New York
Times. https://www.nytimes.com/2021/09/06/nyregion/9-11-ground-zero-victims-remains.html.
Accessed on 26 March 2022.
Kim, J.Y., Park,
E.Y. & Lee, H.J. 2017. The study of
ABO genotyping for forensic application. Forensic Science International:
Genetics Supplement Series 6: e570-e572.
Kofiadi, I.A.
& Rebrikov, D.V. 2006. Methods for detecting single nucleotide
polymorphisms: Allele-specific PCR and hybridization with oligonucleotide
probe. Russian Journal of Genetics 42(1): 16-26.
Lee, H.S., Lee,
J.W., Han, G.R. & Hwang, J.J. 2000. Motherless case in paternity testing. Forensic
Science International 114(2): 57-65.
Lee, H.Y., Yoon,
J.A., Yang, W.I. & Shin, K.J. 2013. A one step multiplex PCR assay for
rapid screening of East Asian mtDNA haplogroups on forensic samples. Legal
Medicine 15(1): 50-54.
Lee, H.Y., Park,
M.J., Kim, N.Y., Yang, W.I. & Shin, K.J. 2010. Rapid direct PCR for ABO
blood typing. Journal of Forensic Sciences 56(SUPPL. 1): 179-182.
Lefever, S.,
Rihani, A., van der Meulen, J., Pattyn, F., van Maerken, T., van Dorpe, J.,
Hellemans, J. & Vandesompele, J. 2019. Cost-effective and robust genotyping
using double-mismatch allele-specific quantitative PCR. Scientific Reports 9(1): 2150.
Legros, F., Malka,
F., Frachon, P., Lombès, A. & Rojo, M. 2004. Organization and dynamics of
human mitochondrial DNA. Journal of Cell Science 117(13): 2653-2662.
Liu, J., Huang,
S., Sun, M., Liu, S., Liu, Y., Wang, W., Zhang, X., Wang, H. & Hua, W.
2012. An improved allele-specific PCR primer design method for SNP marker
analysis and its application. Plant Methods 8: 34.
Ma, H., Zhu, H.,
Guan, F. & Cherng, S. 2006. Paternity testing. Journal of Americal
Science 2(4): 76-92.
MacLeod, A. 2004.
Minisatellites and MVR-PCR for the individual identification of parasite
isolates. Methods in Molecular Biology 270: 187-202.
MacLeod, A.,
Welburn, S., Maudlin, I., Turner, C.M.R. & Tait, A. 2001. Evidence for
multiple origins of human infectivity in Trypanosoma brucei revealed by
minisatellite variant repeat mapping. Journal of Molecular Evolution 52(3):
290-301.
Majeed, U.,
Darwish, E., Rehman, S.U. & Zhang, X. 2018. Kompetitive allele specific PCR
(KASP): A singleplex genotyping platform and its application. Journal of
Agricultural Science 11(1): 11.
Makanga, J.O.,
Christianto, A. & Inazu, T. 2015. Allele-specific real-time polymerase
chain reaction as a tool for urate transporter 1 mutation detection. In Methods
in Molecular Biology, edited by Basu, C. 1275: 117-125.
Marini, M.,
Sasongko, T.H., Watihayati, M.S., Atif, A.B., Hayati, F., Gunadi,
Zabidi-Hussin, Z.A.M.H., Ravichandran, M., Nishio, H. & Zilfalil, B.A.
2012. Allele-specific PCR for a cost-effective & time-efficient diagnostic
screening of spinal muscular atrophy. The Indian Journal of Medical Research 135(1): 31.
Mastrantonio, V.,
Latrofa, M.S., Porretta, D., Lia, R.P., Parisi, A., Iatta, R., Dantas-Torres,
F., Otranto, D. & Urbanelli, S. 2019. Paternal leakage and mtDNA
heteroplasmy in Rhipicephalus spp. ticks. Scientific Reports 9(1): 1-8.
Medrano, R.F.V.
& de Oliveira, C.A. 2014. Guidelines for the tetra-primer ARMS-PCR
technique development. Molecular Biotechnology 56(7): 599-608.
Mo, S.K., Liu,
Y.C., Wang, S.Q., Bo, X.C., Li, Z., Chen, Y. & Ni, M. 2016. Exploring the
efficacy of paternity and kinship testing based on single nucleotide
polymorphisms. Forensic Science International: Genetics 22: 161-168.
Moran, Y.,
Labrador, L., Camargo, M.E., Fernández, D. & Chiurillo, M.A. 2016. Design
of an allele-specific PCR assay to genotype the rs12255372 SNP in a pilot study
of association between common TCF7L2 polymorphisms and type 2 diabetes in
Venezuelans. Archives of Endocrinology and Metabolism 60(3): 246-251.
Muro, T.,
Fujihara, J., Imamura, S., Nakamura, H., Kimura-Kataoka, K., Toga, T., Iida,
R., Yasuda, T. & Takeshita, H. 2012.
Determination of ABO genotypes by real-time PCR using allele-specific primers. Legal
Medicine 14(1): 47-50.
Myakishev, M.V.,
Khripin, Y., Hu, S. & Hamer, D.H. 2001. High-throughput SNP genotyping by
allele-specific PCR with universal energy-transfer-labeled primers. Genome
Research 11(1): 163-169.
Nasis, O.,
Thompson, S., Hong, T., Sherwood, M., Radcliffe, S., Jackson, L. & Otevrel,
T. 2004. Improvement in sensitivity of
allele-specific PCR facilitates reliable noninvasive prenatal detection of
cystic fibrosis. Clinical Chemistry 50(4): 694-701.
Niederstätter, H.
& Parson, W. 2009. Fluorescent duplex allele-specific PCR and amplicon
melting for rapid homogeneous mtDNA haplogroup H screening and sensitive
mixture detection. PLoS ONE 4(12): e8374.
Nittu, G.,
Bhavana, P.M., Shameer, T.T., Ramakrishnan, B., Archana, R., Kaushal, K.K.,
Khedkar, G.D., Mohan, G., Jyothi, M. & Sanil, R. 2021. Simple nested
allele-specific approach with penultimate mismatch for precise species and sex
identification of tiger and leopard. Molecular Biology Reports 48(2):
1667-1676.
Papp, A.C.,
Pinsonneault, J.K., Cooke, G. & Sadée, W. 2003. Single nucleotide
polymorphism genotyping using allele-specific PCR and fluorescence melting
curves. BioTechniques 34(5): 1068-1072.
Rajagopalan, R.M.
& Fujimura, J.H. 2018. Variations on a chip: Technologies of difference in
human genetics research. Journal of the History of Biology 51(4):
841-873.
Rejali, N.A.,
Moric, E. & Wittwer, C.T. 2018. The effect of single mismatches on primer
extension. Clinical Chemistry 64(5): 801-809.
Ricaut, F.X.,
Bellatti, M. & Lahr, M.M. 2006. Ancient mitochondrial DNA from Malaysian
hair samples: Some indications of Southeast Asian population movements. American
Journal of Human Biology 18(5): 654-667.
Richards, S.,
Aziz, N., Bale, S., Bick, D., Das, S., Gastier-Foster, J., Grody, W.W., Hedge,
M., Lyon, E., Spector, E., Voelkerding, K., Rehm, H.L. & ACMG Laboratory
Quality Assurance Committee. 2015. Standards and guidelines for the
interpretation of sequece variants: A joint consensus recommendation of the American
College of Medical Genetics and Genomics and the Association for Molecular
Pathology. Genetics in Medicine 17(5): 405-424.
Salisbury, B.A.,
Pungliya, M., Choi, J.Y., Jiang, R., Sun, X.J. & Stephens, J.C. 2003. SNP
and haplotype variation in the human genome. Mutation Research - Fundamental
and Molecular Mechanisms of Mutagenesis 526(1-2): 53-61.
Scally, A. 2016.
The mutation rate in human evolution and demographic inference. Current
Opinion in Genetics and Development 41: 36-43.
Senafi, S.,
Ariffin, S.H.Z., Din, R.D.R., Wahab, R.M.A., Abidin, I.Z.Z. & Ariffin, Z.Z.
2014. Haplogroup determination using HV1 and HV2 region in human mtDNA. Journal
of Applied Sciences 14(2): 197-200.
Sigurdardóttir,
S., Helgason, A., Gulcher, J.R., Stefansson, K. & Donnelly, P. 2000. The
mutation rate in the human mtDNA control region. American Journal of Human
Genetics 66(5): 1599-1609.
Simsek, M. &
Adnan, H. 2000. Effect of single
mismatches at 3′-end of primers on polymerase chain reaction. Journal
of Scientific Research-Medical Sciences 2(1): 11-14.
Smith, S.M. &
Maughan, P.J. 2015. SNP genotyping using KASPar assays. In Methods in
Molecular Biology. Vol. 1245, edited by Batley, J. New York: Humana Press.
pp. 243-256.
Sobrino, B.,
Brión, M. & Carracedo, A. 2005. SNPs in forensic genetics: A review on SNP
typing methodologies. Forensic Science International 154(2-3): 181-194.
Śpibida, M.,
Krawczyk, B., Olszewski, M. & Kur, J. 2017. Modified DNA polymerases for
PCR troubleshooting. Journal of Applied Genetics 58(1): 133-142.
Suenaga, E. &
Nakamura, H. 2004. Rapid individual identification by minisatellite variant
repeat (MVR)-PCR at D1S8 locus using “Exponential Law.” Analytical Sciences 20(12): 1629-1633.
Taira, C.,
Matsuda, K., Yamaguchi, A., Sueki, A., Koeda, H., Takagi, F., Kobayashi, Y.,
Sugano, M. & Honda, T. 2013. Novel high-speed droplet-allele
specific-polymerase chain reaction: Application in the rapid genotyping of
single nucleotide polymorphisms. Clinica Chimica Acta 424: 39-46.
Tamaki, K. &
Jeffreys, A.J. 2005. Human tandem repeat sequences in forensic DNA typing. Legal
Medicine 7(4): 244-250.
Urata, M., Wada,
Y., Kim, S.H., Chumpia, W., Kayamori, Y., Hamasaki, N. & Kang, D. 2004.
High-sensitivity detection of the A3243G mutation of mitochondrial DNA by a
combination of allele-specific PCR and peptide nucleic acid-directed PCR
clamping. Clinical Chemistry 50(11): 2045-2051.
van Oven, M. 2015.
PhyloTree Build 17: Growing the human mitochondrial DNA tree. Forensic
Science International: Genetics Supplement Series 5: e392-e394.
Warshauer, D.H.,
Davis, C.P., Holt, C., Han, Y., Walichiewicz, P., Richardson, T., Stephens, K.,
Jager, A., King, J. & Budowle, B. 2014. Massively parallel sequencing of
forensically relevant single nucleotide polymorphisms using TruSeqTM forensic amplicon. International Journal of Legal Medicine 129(1):
31-36.
Wijaya, Y.O.S.,
Nishio, H., Niba, E.T.E., Shiroshita, T., Kato, M., Bouike, Y., Tode, C., Ar
Rochmah, M., Harahap, N.I.F., Nurputra, D.K., Okamoto, K., Saito, T., Takeuchi,
A., Lai, P.S., Yamaguchi, S. & Shinohara, M. 2021. Dried blood spot
screening system for spinal muscular atrophy with allele-specific polymerase
chain reaction and melting peak analysis. Genetic Testing and Molecular
Biomarkers 25(4): 293-301.
Wu, W-M., Tsai,
H-J., Pang, J-H.S., Wang, H-S., Hong, H-S. & Lee, Y-S. 2005. Touchdown thermocycling program enables
a robust single nucleotide polymorphism typing method based on allele-specific
real-time polymerase chain reaction. Analytical Biochemistry 339(2):
290-296.
Ye, S., Dhillon,
S., Ke, X., Collins, A.R. & Day, I.N.M. 2001. An efficient procedure for
genotyping single nucleotide polymorphisms. Nucleic Acids Research 29(17): 88-88.
Zahurancik, W.J.,
Klein, S.J. & Suo, Z. 2014. Significant contribution of the 3 → 5 exonuclease
activity to the high fidelity of nucleotide incorporation catalyzed by human
DNA polymerase. Nucleic Acids Research 42(22): 13853-13860.
Zainuddin, Z.
& Goodwin, W. 2004. Mitochondrial DNA profiling of modern Malay and Orang
Asli populations in Peninsular Malaysia. International Congress Series 1261: 428-430.
Zhao, G., Yang,
Q., Huang, D., Yu, C., Yang, R., Chen, H. & Mei, K. 2005. Study on the
application of parent-of-origin specific DNA methylation markers to forensic
genetics. Forensic Science International 154: 122-127.
*Corresponding author; email: seri.ishar@ukm.edu.my
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