Trace evidence
Identifying and Minimizing Sources of Variability Within Modern Spectroscopic Techniques for the Forensic Analysis of Glass
Genomic Analysis of Pollen Grains for Forensic Applications
Evaluating the Validity and Reliability of Textile and Paper Fracture Characteristics in Forensic Comparative Analysis
Electrochemical and mass spectrometry methods for identification of gunshot residues (GSR) in forensic investigations
Classification of Ground-Truth Fire Debris Samples Using Neural Networks
Analysis of Forensically Relevant Evidence Using Electrochemistry, Spectroscopy, and Mass Spectrometry Tools
Towards Commercialization: Preliminary Developmental Validation of a High Resolution Melt Curve Mixture Prediction Assay and SVM Tool
Rapid screening of high-priority N-nitrosamines in pharmaceutical, forensic, and environmental samples with paper spray ionization and filter cone spray ionization-mass spectrometry
Linking ammonium nitrate-aluminum (AN-AL) post-blast residues to pre-blast explosive materials using isotope ratio and trace elemental analysis for source attribution
Building More Reliable Forensic Sciences
Building More Reliable Forensic Sciences
Building More Reliable Forensic Sciences, Part 1
The scientific basis of several aspects of forensic evidence was first called into question by the 2009 National Research Council report. That report had an immediate impact on law enforcement, crime labs, courtrooms, and the broader scientific community.