Application Notes: Cannabis

This application note demonstrates the potential of valorizing mother liquor using Centrifugal Partition Chromatography (CPC) to remediate minor cannabinoids.

Recycling chromatography is a powerful technique that allows the separation of two closely eluting peaks by increasing the column bed length.

This application note demonstrates the use of Thermal Desorption as greener approach for sampling of terpenes in air for workplace exposure or terpene profiling

This application note demonstrates the use of Thermal Desorption as a greener approach for sampling of terpenes in the air for workplace exposure or terpene profiling

This application note outlines a QuEChERS method for the simultaneous analysis of cannabis for 67 pesticide and 5 mycotoxin residues in cannabis flower.

This application note demonstrates the performance of SCION's GC combined with FID, showcasing its higher sample throughput.

This demonstrates how to perform cannabis potency analysis using HPLC-UV, displaying the advantages of this technique for analyzing acidic cannabinoids.

Download our application note to learn how to test for cannabinoids in biological samples and discover a method offering the required sensitivity for drug tests.

This application note utilises SCION's GC-MS to test for cannabinoids, providing method conditions and sample preparation techniques to validate methods.

This application note demonstrates the performance of SCION's GC combined with FID, showcasing its higher sample throughput.

Discover how Headspace GC-MS is used to test cannabis samples for residual solvents and pesticides in this application note.

Discover the advantages of using GC-FID for cannabis terpene testing, and see our expert advice on method validation for the technique.

Reveal PFAS dark matter using high-resolution ion mobility (HRIM) to enhance existing chromatographic methods and provide richer insights into samples.

This application note outlines a QuEChERS method for the simultaneous analysis of cannabis for 67 pesticides and 5 mycotoxins residues in cannabis flower.

The presented methods are suitable for the quantification of THC and THCA (and other cannabinoids) in Cannabis sativa and to check THC-free cannabis for compliance.

This application note outlines an extraction method for four natural cannabinoids and two major metabolites of Δ9-THC in blood using Clean Screen® THC SPE column.

This application note features a unique, simple, and robust solid-phase extraction method for cannabinoids in urine followed by analysis with LC–MS/MS.

This application note outlines an extraction method for four natural cannabinoids and the two major metabolites of Δ9-THC in blood using Clean Screen® THC SPE column.

Method for complete, accurate quantification of vitamin E acetate by LC–MS/MS in less than three min, utilizing a PerkinElmer QSight® 420 triple quadrupole system

In this work, an LC–MS/MS method is presented for the analysis of 66 pesticides and five mycotoxins in cannabis and hemp concentrate.

Determination of 16 common cannabinoids utilizing a PerkinElmer LC 300 HPLC System

This application note demonstrates a sample preparation procedure for using the Empore C18 SPE cartridge for the extraction of the THC metabolite, THC-COOH, from urine samples.

This note reviews the process of extraction of synthetic and naturally occurring cannabinoids in urine using SPE and LC–MS/MS using UCT’s SSHLD extraction cartridge.

Reviews the highly retentive but universal nature of UCT’s polymeric Styre Screen® HLD sorbent for analysis of barbiturates, benzodiazepines, and THC in oral fluid.

A simple and robust method for the detection of 16 cannabinoids in hemp and cannabis samples using a rugged isocratic HPLC method coupled with UV detection.

A solid-phase extraction method utilized to extract 19 synthetic cannabinoids produced recoveries in the range of 85–110% with corresponding RSD values of less than 5%.

Automate your SPE isolation of THC analytes from blood with Gilson’s ASPEC 274. This method saves time due to cartridge conditioning and the removal of wash steps.

Discover a reliable and robust HPLC method to separate Δ10-THC and Δ6a,10a-THC isomers produced from Δ9-THC degradation using a chiral HPLC stationary phase.