TrueAllele® Computational Forensics for Solving “Uninterpretable” DNA Mixtures

TrueAllele forensic solution: making DNA count

How TrueAllele® computing automates DNA analysis and databasing for mass disasters

Forensic match information: exact calculation and applications

Transforming DNA evidence into reliable information: computers, science and society

Justice denied: Mr. Hopkins invisible semen

The probative power of DNA mixtures

DNA investigation: Across the universe

Objective DNA Mixture Information in the Courtroom: Relevance, Reliability and Acceptance

Rapid DNA Response: On the Wings of TrueAllele

Separating familial mixtures, one genotype at a time

Compute first, ask questions later: an efficient TrueAllele® workflow

Using TrueAllele® Casework to separate DNA mixtures of relatives

TrueAllele® Casework at Probabilistic Software Workshop

TrueAllele® Casework Validation on PowerPlex® 21 Mixture Data

TrueAllele® interpretation of DNA mixture evidence

Solving crimes using MCMC to analyze previously unusable DNA evidence

Preventing rape in the military through effective DNA computing

Cracking the DNA mixture code — computer analysis of UK crime cases

DNA Mapping the Crime Scene: Do Computers Dream of Electric Peaks?

Unleashing Forensic DNA through Computer Intelligence

DNA Mixture Deconvolution by Binomial Sampling of Individual Cells

Reliable Interpretation of Stochastic DNA Evidence

Overcoming DNA Stochastic Effects

Explaining the Likelihood Ratio in DNA Mixture Interpretation

Preserving DNA Information

Scientific Combination of DNA Evidence: A Handgun Mixture in Eight Parts

Profiles in Productivity: Greater Yield at Lower Cost with Computer DNA Interpretation

Defeating opposition experts: winning with science

Different TrueAllele® users, same DNA answer: a multi-center proficiency study

Getting more from less: low-level DNA mixtures on cartridges