The sources provided discuss five chemical extraction techniques, building upon foundational concepts like partitioning, equilibrium, pH, and acid-base chemistry to explain how compounds are separated.

This is a detailed explanation of the principles and applications of Fourier Transform Infrared (FTIR) spectroscopy.

This episode explore Bayesian networks and their application in forensic science, focusing on evidence interpretation and the organization of complex problems.

This course section lays the foundation for understanding acid-base chemistry, focusing heavily on pH and pKa.

This material provides an overview of the fundamental principles of infrared (IR) spectroscopy, an analytical technique that utilizes the interaction between infrared light and molecular vibrations.

These documents explore key statistical concepts in forensic science, focusing primarily on measurement uncertainty, types of error, accuracy and precision, as well as the definition and application of probability. One of the materials provides a detailed explanation of how errors (including gross, random, and systematic errors) affect the reliability of data, and distinguishes between validity (whether the experiment addresses the intended question) and reliability (the reproducibility of measurement results).

An in-depth exploration of the practical applications of UV-Vis spectrophotometry.

These materials primarily discuss the core principles and applications of calibration and method validation in instrumental analysis.

The focus of this course is on the fundamentals of chemistry, particularly the concepts of partitioning and equilibrium. These fundamentals are crucial to forensic chemistry, especially as they provide the foundation for extractions in toxicology.

The course content discussed, covering uncertainty, types of errors, accuracy and precision, probability definitions, fundamental laws, different schools of probability, and the significance of Bayes' Rule in forensic science.