Component Separation TRIZ Cases

See how Peltier cooling, insulation, and thermostat-controlled exhaust maintain stable operatin

See how automated stage positioning and buffer mixing eliminate manual sample loading errors in

See how a thermoelectric cooler enables both collection and desorption in a thermal desorption

See how solvent extraction and LC-MS analysis quantify sebum components after a single wash cyc

See how a thermoelectric cooler enables dual-mode thermal desorption tube operation to increase

See how a duct-isolated column chamber with convective air circulation and passive preheating m

See how independent cooling and heating elements dehumidify air before heating to prevent dew c

See how a linear-slot probe uses capillary action and passive thermal conduction to sample wet

See how sequential cooling and heating elements dehumidify air before heating to prevent dew co

See how heat transfer fins and forced airflow reduce heater surface temperature below ignition

See how dual-loop feedback with thermoelectric devices and internal/external heatsinks prevents

See how a mounting board with recesses enables flexible component positioning in fluid heating

See how a detachable thermal module with active pre-heater assembly and heater cartridge provid

See how a duct-isolated column chamber uses convective wall heating and radiative transfer to e

Dual-loop feedback with thermoelectric heatsinks stabilizes HPLC thermal chamber temperature while preventing icing that can distort results.

A removable heat inducer creates spiral or partitioned flow paths to improve gas heating before pressure reduction and prevent condensation.

Reciprocating steel spheres rupture fragrance microcapsules on hair, skin, or fabric so released volatiles can be trapped and analyzed over time.

Adjustable modules, a pullout shelf, and vented electrical panel organize chromatography components in less space without sacrificing access.

Computer-controlled pumps and selection valves enable precise inline dual-stage dilution for concentrated ICP samples without manual dilution errors.

Sentinel MRM transitions trigger the next assay group and LC setting to handle retention time shifts and simplify large-panel screening.

Direct vacuum release of supercritical fluid enables proton-transfer ionization of non-polar and polymeric compounds without solvent modifiers.

Current sensing at the capillary with no sample flow verifies tip projection, reducing contamination, downtime, and sensitivity loss.

Iterative, compound-selective reinjection resolves inconclusive mass spectrometry screens faster, helping unstable samples avoid degradation.

AC and offset voltage control lets a vibrating-sheet nebuliser generate charged aerosol plumes with less waste, cleaning, and contamination.

Selective injection into multiple gas analysis units enables high-resolution real-time tracking of secondary battery gases.

Simultaneous tandem MS detection of multiple CAH steroid analytes in one sample injection improves diagnostic accuracy and efficiency.

Microfluidic separation with electrospray mass spectrometry improves sensitive, reproducible detection of marker patterns for biological states.

Liquid chromatography and direct mass spectrometry quantify underivatized estradiol, cutting sample prep while reaching 2 pg/mL sensitivity.

Real-time encoding stores summed ion counts and window positions instead of full scanning SWATH data, cutting file size while preserving precursor inference.

A movable lamp seat lets detector lamps be exchanged without disassembly, enabling automatic contact and alignment while reducing high-voltage exposure.

Independent heating zones and vacuum transfer volatiles to a sorbent while leaving moisture and matrix residues behind for cleaner GCMS analysis.

Mass-based detection identifies monoclonal immunoglobulins above polyclonal background for faster, more specific gammopathy screening and monitoring.

Parallel electrospray ion beams with a set time offset boost mass spectrometry sensitivity, scan speed, dynamic range, and ion transfer efficiency.

Self-aligning lamp seat and cap simplify high-voltage lamp installation while improving electrical contact and heat removal.

An offset multi-surface electrode pattern strengthens PID signals while reducing amplifier noise and humidity sensitivity in gas detection.

Surface adsorption with ion mobility and direct infusion removes the nLC-MS/MS bottleneck, boosting proteomics throughput without losing identification rates.

Partitioning the m/z range by ion abundance enables tailored injection times, improving low-abundance detection without trap overfilling.

Carbonyl VOCs in exhaled breath are derivatized into detectable adducts, improving sensitivity and specificity for cancers outside the lung.

Continuous heated gas crossing the sample spray blocks charged droplets from entering the gas path, reducing contamination and cleaning needs.

Automated file reading, filtering, and signal-to-noise analysis extract compound ion pairs and characteristic peaks with less manual effort.

TIMS parallel accumulation improves fragment ion spectra acquisition in complex mixtures, boosting detectability and throughput for peptide analysis.

Machine-learned peak shape parameters from chemical structure enable accurate LC-MS peak integration without compound-specific standards.

By separating analytes from biological matrices on a monolithic paper substrate, this approach cuts ion suppression and enables rapid portable MS quantitation.

Dynamic switching between 1D and 2D ion chromatography improves inorganic analyte detection in freshwater and saline samples.

Paternò-Büchi derivatization with tandem mass spectrometry resolves and quantifies lipid C=C isomers to distinguish normal from diseased tissue.

Real-time spectral search adds known fragment m/z values to an exclusion list, cutting redundant MS2 scans and preserving dataset confidence.

An auxiliary electrode improves plume desolvation and ion transport, keeping electrospray sensitivity stable across changing flow rates.

A split jig and side sealing structure collect battery gases in real time without dilution, while enabling charging, heating, and vibration tests.

Deuterated standards and LC-MS/MS improve antidepressant and metabolite quantification across complex biological samples.

SDGV and TDCA enable more accurate blood-based detection and tracking of liver fat and hepatocellular carcinoma than ALT or AST.

ALD oxide-nitride coatings with embedded metal particles tune capillary resistance and maintain stable voltage in harsh LC/MS ion transfer.

A separable door closing portion contacts the opening edge in sequence to overcome O-ring rebound and maintain vacuum sealing.

An isotope-labeled sulfide standard with reduction and derivatization enables accurate, high-throughput H2S and thiol measurement in biological samples.

Parallel gas analysis units and carrier-gas transport enable high-resolution real-time tracking of secondary battery gases and degradation behavior.

Preconfigured analytical service packages lock validated settings and compliance data so non-experts can run clinical LC-MS tests faster with fewer errors.

Automated battery handling and gas diffusion enable accurate, continuous analysis of gases from multiple secondary batteries with less human error.

Reference components bridge standard and target samples to correct new chromatograph mass spectrometry measurements without new standards.

Neutral species from plasma react with independently generated reagent ions to improve non-metal detection sensitivity and reduce isobaric interference.

Expected fragment ions are added to an exclusion list so DDA MS2 targets true precursors, reducing redundant scans and improving sensitivity.

Offset electrode patterns strengthen PID signals while reducing amplifier noise and humidity-driven galvanic currents.

A silicon coating on ion source surfaces limits hydrogen-analyte reactions in GC/MS, reducing peak tailing and improving spectral fidelity.

Beta-diketonate Mo/W precursors widen the ALD window to form crystalline chalcogenide thin films with controlled growth and low impurities.

An electron multiplier estimates total ion count before image current analysis, improving m/z calibration despite space charge and noise.

Oxalic acid in the LC mobile phase blocks phosphate compounds from adsorbing to metal surfaces, improving MS sensitivity and accuracy.

Modified desolvation gas with acid or base vapor and isopropanol counters TFA ion suppression to improve LC-MS protein characterization.

Relative response factors replace mixed standard solutions, simplifying GC/MS calibration for brominated flame-retardant quantification across analyzers.

Ion mobility maps paired with LC-ESI reference spectra identify and localize small molecules in tissue sections with higher specificity.

Guide pins stabilize the lead screw and anti-rotation device to reduce friction, binding, and piston displacement errors in chromatography.

A flexible collet grasper holds fluidic conduits in axial position to prevent ferrule sliding and enable leak-free installation.

Multilayer PEEK frits create tortuous flow channels that improve biocompatible filtration, reduce pressure drop, and resist leaks in HPLC and UHPLC.

Opposite-polarity control moves a proportional solenoid valve from a mid-rest position to cut power use and heat in hazardous gas analysis.

A multi-position rotor links four ports to reverse flow or bypass a component, cutting extra valves and tubing in chromatography systems.

Camera-based strip reading replaces subjective visual calls with quantitative analyte measurement and metadata capture for more consistent diagnostics.

A switched circulation path and bubble detection clear mobile-phase bubbles before delivery, improving chromatograph accuracy and setup reliability.

A pre-dimensioned capillary inside the HPLC column housing enables tool-free bypass installation for automated volume, leakage, and peak checks.