Component Separation TRIZ Cases

A chromatography fluid distributor uses a permeable resistive medium layer to ensure uniform flow distribution across the column floor.

Multi-bed sorbent sampling tube quantitatively traps volatile organic compounds from exhaled breath using specialized material combinations.

A gel particle measurement reagent uses a biologically inactive accelerating factor to trigger rapid sol-to-gel phase transitions in samples.

A hollow needle cleaning system uses peristaltic pumps to flush fluid through a fixed injection port.

Single-step ruthenium reactor converts diverse organic molecules to methane, boosting flame ionization detector sensitivity without complex calibration.

A probabilistic chromatography column model and detector impulse response model invert electrical signals to determine gaseous composition.

Dual calibration curves correct supply pressure variations, reducing total flow measurement errors in gas chromatographs.

Single column and buffer setup eliminates hardware changes for broad hydrophobicity analysis, reducing diagnostic delays.

A resistance-heated separation capillary cooled by forced convective flow establishes a continuous temperature gradient along the chromatography column.

Segmented capillary design maintains pH gradient stability during mobilization, reducing protein precipitation and improving analytical throughput.

A biosensor detection region separates the carrier surface from the sensor surface to control reagent mixing.

HPLC and density measurements predict crude oil properties like cetane and pour points without traditional distillation.

A handheld gas analysis device uses micro-electro-mechanical systems to perform portable chemical detection.

Chromatography analysis uses spectrum data to separate component peaks in multiple samples.

Aligns breath fingerprint data from varied GC-MS sources by correcting retention time shifts through internal standard markers.

Expanding gas into a larger sample cell maintains semi-volatile organic compounds in the vapor phase, preventing condensation and improving gold reflectivity.

Independent temperature adjuster stabilizes switching device fluid resistance for consistent sample component separation.

A microfluidic chip integrates ion exchange chromatography and capillary electrophoresis to separate proteins rapidly.

Replacing bulky detectors with 2D material films reduces device complexity while enabling molecular-level identification.

Separating oxidation and stripping modules resolves incomplete conversion issues while enabling real-time liquid chromatography analysis.

A blend valve assembly uses a movable rotor and stator to mix primary and secondary fluids while maintaining separation.

Dynamic threshold evaluation of concentration signals controls phase transitions to resolve yield-purity trade-offs in cyclic chromatographic purification.

Multiplexed heavy peptide internal standards resolve multiple isotopologues to enhance absolute protein quantitation accuracy across a broad dynamic range.

A width-based quantitation method models chromatographic peaks as exponential functions to measure peak width at selected heights.

An intermediate pressure ionization region enables universal mass spectrometry by supporting multiple ionization methods within a single device.

A syringe aldehyde detection method uses derivatization with 2,4-DNPH followed by reverse phase HPLC coupled to a UV detector.

Multi-capillary column trap eliminates channeling and water management issues in packed columns by using segmented adsorbents for consistent trace analysis.