Preparing Sample For Investigation TRIZ Cases

HPIR spectroscopy system detects uranium isotopes in UF6 gas using tunable infrared emission and frequency calibration.

An injection axis directs liquid onto a container lateral edge to increase dispensing speed while reducing splashing risk.

A biotissue clearing composition uses CHAPS and urea to selectively remove lipids while preserving tissue structure.

Automated histopathology device reduces processing time by using segmented modules to fixate and embed samples while maintaining spatial orientation.

Infrared heating tube processes multiple samples in parallel, reducing element loss and contamination risks during chemical analysis.

Simultaneous tissue dehydration and staining with permeation enhancers overcomes slow processing limits to enable deep fluorescence imaging.

Optical triangulation replaces inductive sensors to maintain measurement precision across a broad temperature range from -80°C to 300°C.

Laser irradiation of solid state materials achieves selective nanoscale heating, resolving slow uniform temperature control in nanopore experiments.

A foam testing apparatus uses a ceramic diffuser to introduce air into an oil sample while maintaining precise temperature control.

A pressurizing device applies elevated pressure to staining solutions, driving antibody molecules deeper into biological samples.

Hydrophobic chromatography removes impurities without pH stress, reducing process complexity.

Specific monoclonal anti-oxMIF antibodies detect oxidized MIF in tissue sections without altering native protein structures.

Controlled heat treatment breaks formalin cross-links in fixed tissue, enabling accurate protein yield measurement without protease digestion.

A radio frequency measurement system monitors cavity resonance changes to detect material dielectric properties.