Component Separation TRIZ Cases

One monoclonal antibody targets conserved AAV capsid epitopes across VP1, VP2, and VP3 for broad vector detection.

LC-MS/MS separates and selectively quantifies sucralose-6-acetate at ppb levels in solid and liquid sucralose samples for safety assessment.

Manual LC-MS review can miss peak boundaries; a trained deep learning model identifies start and end points for automated area determination.

Filtration can delay processing and compromise virus integrity; liquid-bath collection feeds a flowing sample to rapid fluorescence detection.

AMPcP and caffeine controls reveal exposed metal adsorption before LC separations, protecting analytical reliability and reducing wasted runs.

Specialized HPLC and UPLC procedures detect beta-Asp10, cyclo-Asp10, cyclo-Asp17, ATP(3-34), and ATP(4-34) in abaloparatide samples.

Diffusion-bonded layers form integrated channels that replace tube connections, reducing pump-head space, carryover, and manual setup time.

An open-or-closed window and transfer drawer limit ambient exposure while robots load sample-vial carriers, reducing temperature fluctuation and delays.

Continuous monitoring of analyte-independent parameters across LC streams triggers QC only when performance deviates, reducing dedicated runs.

Pre-established category calibration curves let GC/MS quantify multiple food compounds while reducing sample-by-sample standard addition work.

Traditional chromatography needs milliliter-scale samples and manual steps; centrifugal microfluidics automates separation and collection with less reagent use.

NMR measurements combine fraction concentration data with spin relaxation to monitor biomolecule purity during chromatographic separation.

A movable optical system and restriction unit hold the capillary at a defined position for simple, accurate sample detection.

Automated fixation, washing, and fluorescent labeling pair with rotating-disc scanning to deliver viral detection results in under 15 minutes.