Specific Gravity Using Flow Properties TRIZ Cases

Two Coriolis measurement zones compare mass flow and density in real time, verifying accuracy online without stopping production.

Interchangeable vibrating tubes and a fixed contactless temperature sensor improve density measurement accuracy while reducing cleaning cost.

Higher-order vibration mode analysis and precise exciter placement help detect bubbles or particles early while preserving flow measurement accuracy.

Steady-state checks improve Coriolis meter zero-point accuracy after tube installation.

Amplitude and frequency analysis estimates fluid density, identifies gas or liquid, and assigns flow to the appropriate totalizer.

Feedback loops convert acoustic phase shifts into frequency signals for precise sensing.

Segmented guiding devices create compact Coriolis flow paths with lower pressure drop.

Computing system transforms molten metal weight into length criteria and simulates fluid flow to determine physical properties.

A windowless microbolometer array detects gas flow to generate pixel-based images of density and temperature.

Accumulating density differences against a reference profile determines the replacement end time, preventing drying failures from flow fluctuations.

Optical measurement of return cement suspension enables reliable reuse in jet grouting, reducing disposal costs through real-time feedback control.

Integrated modular sensor assembly reduces equipment footprint and sample volume while maintaining high-pressure phase equilibrium analysis.

A Coriolis meter integrates fixed exciter and sensor elements directly into the electronic circuit board to minimize device volume.

A flow measuring point merges Coriolis mass flow sensors with pressure-difference apparatuses to detect fluid dynamics.

A dual core flooding apparatus uses independent pressure regulation to simulate reservoir conditions.

Combining density and electrical measurements corrects variable hydrocarbon densities to resolve accuracy uncertainties in multiphase fluid analysis.

A method calculates Coriolis measuring tube quality by determining standard vibration properties using temperature coefficients.

Frequency scanning identifies the prime resonance mode in a fluid density meter, eliminating ambiguity from multiple fixture frequencies.

Phase control eliminates viscosity effects on oscillatory forks, resolving the contradiction between measurement precision and device complexity.

Selectable drive chains switch between low and high frequency modes to resolve adaptability versus complexity trade-offs.

External placement of exciters and sensors eliminates hermetic feed-throughs, resolving device complexity while maintaining measurement precision.