Reducing pressure inside the sealed vessel increases sample gas density for efficient ionization, eliminating heating requirements and minimizing carry-over.
Spatially segmenting tissue via droplet lysis reduces abundant molecule interference, enhancing mass spectrometry sensitivity for specific biomarkers.
Segmenting ion flow through parallel capillaries reduces space charge effects and wall collisions, enabling gas-dynamic focusing.
An asymmetric sample cone and tapered internal surface reduce transience time, maintaining plume distinctiveness during mass spectrometry analysis.
Extreme ultraviolet radiation disrupts and ionizes surface residues, eliminating bulky desorbers and ozone generation in trace detection systems.
An ion trap separates reference ions from analyte ions to prevent signal suppression and maintain calibration accuracy.
A heated channel generates charged particles from samples without electric fields, reducing system complexity and ion losses.
Rapid thermal pyrolysis achieves site-specific protein digestion at aspartic acid positions, bypassing slow enzymatic incubation and complex instrumentation.
Replacing stepper motor syringe pumps with pneumatic pressure eliminates flow oscillations, ensuring stable aerosol generation for low volatility compounds.
Segmenting continuous flow into picoliter droplets maintains measurement sensitivity during high-throughput analysis.