L. Baron, E. Suzanne, A. Calletier, C. Pardo, L. Pène 

Slides:



Advertisements
Similar presentations
The most efficient STR loci in forensic genetics in population of central Poland R. Jacewicz, M. Jedrzejczyk, J. Berent Forensic Science International:
Advertisements

A comparison of AmpFlSTR Identifiler™ Kit versus AmpFlSTR Identifiler Plus™ Kit in challenging bone samples by using normal and increased PCR cycle number 
Collection protocols for the recovery of biological samples
A comparison of AmpFlSTR Identifiler™ Kit versus AmpFlSTR Identifiler Plus™ Kit in challenging bone samples by using normal and increased PCR cycle number 
Exploring the relative DNA contribution of first and second object’s users on mock touch DNA mixtures  F. Oldoni, V. Castella, D. Hall  Forensic Science.
A. Verzeletti, V. Cortellini, S. Cisana, S. Pretto, N. Cerri, F
V. Kallupurackal, T. Kausel, A. Sulzer, P. Voegeli, A. Kratzer 
Genetic profiling from challenging samples: Direct PCR of touch DNA
B. Bekaert, A. Kamalandua, S.C. Zapico, W. Van de Voorde, R. Decorte 
R. Alghafri, W. Goodwin, S. Hadi 
An evaluation of miniSTR markers for casework applications
A. Barbaro, P. Cormaci, G. Falcone 
DTT quenches the passive reference signal in real-time PCR
C. Petit, V. Martel-Petit, R. Hienne, S. Frackowiak 
Forensic identification of 12 mammals species based on size variation of mitochondrial cytochrome b gene using multiplex PCR assay  M. Črček, K. Drobnič 
L. Baron, E. Suzanne, A. Calletier, C. Pardo, L. Pène 
Efficiency of DNA IQ System® in recovering semen DNA from cotton swabs
C. Davies, J. Thomson, F. Kennedy 
The effects of different adhesive tapes and of Hemastix test strips on DNA recovery using magnetic silica beads  Stefan Kutranov, Holly Cullis  Forensic.
LMD-assisted single cell DNA typing of forensic biological evidence: Issues of the cell type and sample condition  Sergey Leonov, Elena Zemskova, Pavel.
DNA typing of trace DNA recovered from different areas of sandals found at a homicide crime scene investigation: A comparative study  Samuel T.G. Ferreira,
DNA transfer by different parts of a hand
A comparative study between muscle, cartilage and swab from inside the urinary bladder samples for DNA typing of severely burnt bodies in disaster victim.
Establishment of Italian national DNA database and the central laboratory: Some aspects  R. Biondo, F. De Stefano  Forensic Science International: Genetics.
Timothy J. Verdon, R. John Mitchell, Roland A.H. van Oorschot 
Repeated extraction of DNA from FTA cards
G-H. Olsen, M. Aune, K. Janssen, T. Berg 
A custom software solution for forensic mtDNA analysis of MiSeq data
R. Alghafri, S. Alhammadi, K. Amiri 
Population data for SE33 locus in United Arab Emirates Arab population
Development of a SNP-STRs multiplex for forensic identification
Christina Valgren, Sara Wester, Oskar Hansson 
Direct amplification of STRs from blood or buccal cell samples
Automated extraction of DNA from clothing
Combining DNA evidence for greater match information
J. Hedman, L. Albinsson, L. Norén, R. Ansell 
A dedicated automated system for extraction, quantification and STR amplification of forensic evidence samples  James Stray, Vivian T. Nguyen, Jacquelyn.
False homozygosity at D12S391 locus: A case report
A. Verzeletti, V. Cortellini, S. Cisana, S. Pretto, N. Cerri, F
Petra Zenke, Balázs Egyed, Zsolt Pádár, Gábor Kovács 
Timothy J. Verdon, Kaye N. Ballantyne, R. John Mitchell, Roland A. H
New rapid ABO genotyping using direct extraction kit
Efficient DNA extraction from hair shafts
Denilce R. Sumita, Martin R. Whittle 
Evaluating DNA profiles using peak heights, allowing for dropin, dropout and stutters  Roberto Puch-Solis  Forensic Science International: Genetics Supplement.
Joanne L. Simons, Amelia Gamblin, Laura Arnold, Sue C. Vintiner 
New RNA methods for the identification of body fluids and cell types
A comparison of AmpFlSTR Identifiler™ Kit versus AmpFlSTR Identifiler Plus™ Kit in challenging bone samples by using normal and increased PCR cycle number 
Analysis of forensic samples in Banco Nacional de Datos Genéticos
Introducing a latent variable approach for finding populations in a forensic DNA database  Maarten Kruijver  Forensic Science International: Genetics.
Determination of siblings: A special case report from Halle
C.J. Bruijning-van Dongen, K. Slooten, W. Burgers, W. Wiegerinck 
N. Scaramozzino, P. Terrenoire, L. Baron 
Testing the behavior of GlobalFiler® PCR amplification kit with degraded and/or inhibited biological samples  V. Bogas, M. Carvalho, F. Corte-Real, M.J.
Development of the Investigator STR GO
M. Hara, T. Masuda, A. Takada, T. Miyazaki, H. Suzuki, A. Kido, K
Semen detection: A retrospective overview from 2010
Application of less primer method to commercial kits
Optimisation of DNA recovery and analysis of urine samples stored on FTA® card  Korapin Srisiri, Rakpana Jaroenwattana, Nathinee Panvisavas, Achirapa Bandhaya 
DNA persistance in soft tissues exposed to extreme environments
S. Iyavoo, S. Hadi, W. Goodwin 
Kpop: A Python package for population genetics analysis
Effects of the most common methods for the enhancement of latent fingerprints on DNA extraction from forensic samples  S. Gino, M. Omedei  Forensic Science.
Improved performance for forensic casework: Extraction and isolation updates for the Maxwell® 16 instrument  M. Lindner, P.V. Mandrekar, J. Bessetti,
Development of a 24-plex Y chromosomal STR loci typing system
An automated integrated system for pre-PCR punching and PCR-setup
First application of the Investigator DIPplex indels typing kit for the analysis of ancient DNA samples  C. Hollard, F. Mendisco, C. Keyser, E. Crubézy,
Discrepancies between forensic DNA databases
A.M. Ölçen, G. Filoğlu, H. Altunçul, S. Erdem, Ö. Bülbül 
Success rate of LT DNA analyses in casework
Presentation transcript:

A production system to generate reference genetic profiles from Buccal Swab cells on FTA® cards  L. Baron, E. Suzanne, A. Calletier, C. Pardo, L. Pène  Forensic Science International: Genetics Supplement Series  Volume 3, Issue 1, Pages e560-e561 (December 2011) DOI: 10.1016/j.fsigss.2011.10.021 Copyright © 2011 Elsevier Ireland Ltd Terms and Conditions

Fig. 1 Sample lysis worflow. (A) The user scans the evidence barcode as well as a single FluidX Easytrack 2D Barcoded 2ml tube. A ABI PrepFiler Lysep™ is inserted in this FluidX tube. The sample (swab, cigarette butt or other) is inserted in the Lysep column. Lysis buffer is 505μl of PrepFiler Lysis buffer (500μl PrepFiler Lysis buffer+5μl DTT). (B) The Lysep lid is closed and the tube is placed in the 24 tube rack. (C) Lysis incubation 70°C/40min. (D) After lysis the racks are centrifuged for 10min at 2000×g. (E) Remove the Lysep™ columns. (F) The racks are placed on the Hamilton Microlab STARlet for DNA extraction using the standard high volume PrepFiler™ protocol (Fig. 2). Forensic Science International: Genetics Supplement Series 2011 3, e560-e561DOI: (10.1016/j.fsigss.2011.10.021) Copyright © 2011 Elsevier Ireland Ltd Terms and Conditions

Fig. 2 Deck layout of the forensic starlet workstation. Forensic Science International: Genetics Supplement Series 2011 3, e560-e561DOI: (10.1016/j.fsigss.2011.10.021) Copyright © 2011 Elsevier Ireland Ltd Terms and Conditions