Measurement/Indication Equipments TRIZ Cases

Machining load, spindle speed, and feed conditions trigger mist collection only when needed, limiting vibration and preserving machine accuracy.

A two-part adapter separates collet holding from tool-shank positioning to automate precise tool length adjustment and prevent twisting.

Z-axis interferometric scanning adjusts illumination, gain, and exposure by site to suppress pseudo fringes and improve groove measurement accuracy.

Motor current profiling separates load and no-load effects to track knife soiling, wear, and sharpness, enabling sharpening only when needed.

Rotating a non-toothed tool through a light beam filters transient protrusions, giving more reliable diameter measurement of burrs and grinding tools.

An angled, variable-section conduit redirects purge air away from the light beam to cut turbulence, improve repeatability, and reduce air use.

Blade motor current tracking reveals knife sharpness, soiling, and wear, enabling timely grinding with less downtime and longer tool life.

A portable operation terminal lets operators visually guide the probe at hard-to-see points, improving workpiece measurement accuracy.

Independent slipping mounts let the scale-holder and grating expand separately, preserving alignment and measurement accuracy across temperature changes.

A laser displacement sensor scans rotating shaft keyways in situ to measure symmetry accurately without scratching surfaces or slowing production.

A narrow insulated recess protects the sensor lead in a cutting insert, enabling reliable wear detection during machining and reducing workpiece damage.

An intermediary load sensing attachment measures total axial force at the tool housing, avoiding complex discrete sensors in machine tool assemblies.

A tensioned tape, clamp, and force sensor turn blade cutting resistance into repeatable sharpness profiles for faster maintenance decisions.

Wireless low-power data transmission removes stators and cables, enabling accurate force-torque monitoring during machining for 8-hour operation.

Current patterns from multiple servo motors are compared with normal tool-change profiles to detect collisions, clamping faults, and magazine breakage.

An edge moved through the laser beam maps beam width in situ, helping machine tools maintain accurate tool setting with less cleaning downtime.

A shank-embedded sensor and recessed terminal collect cutting data in real time while protecting the connector from cutting exposure.

An in-tool camera and illumination layout captures inner hole surfaces during turning while shielding the camera from chip interference.

Sensor-based control applies user-defined feed and spindle speed rules only when chatter occurs, improving machining stability with less productivity loss.

A stored reference-point relation lets the imaging unit find and read small workpiece ID marks despite position or orientation deviation.

Jaw-mounted chip data lets the press tool match hydraulic force to fitting size, cutting energy waste, jaw weight, and overload risk.

A preloaded sensor embedded in the chuck keeps contact with the pallet to capture cleaner machining signals without spindle distortion.

A pallet-chuck sensor with preload contact captures vibration and structure-borne sound accurately without spindle rotation distortion.

A displaceable functional device moves outside the swivel envelope to scan or clean workpieces in parallel with machining.

Radial biaxial acceleration sensing gives rotating tool holders clearer milling signals for detecting chatter, tool wear, and breakage.

Wireless transponders on grinding tools and clamping means automate data capture, cutting faults and extending tool life in gear machining.

Mounting the user interface on the control-unit housing cuts base height while preserving ergonomic positioning in hand-held power tools.

Rotating the workpiece holder sets a new reference position away from worn areas, improving multi-tooth machining accuracy from one workpiece.

Spindle current monitoring replaces empirical grinder wear checks, enabling timely tool replacement and precise dental restoration machining.

An angle-adjustable swing probe keeps a large touch surface aligned with tool contact, improving tool position and offset detection accuracy.

Stored force characterization lets replacement holders auto-match existing clamps, keeping workpiece grip uniform and reducing manual adjustment.

Detection of retaining force changes lets a new holding unit auto-match existing clamps, improving uniform workpiece holding and process consistency.

A projected tool silhouette replaces bright-field surface imaging, saving machine-tool space while keeping outline inspection robust.

Magnetic field generators and a Hall sensor locate a clamping device on a console reliably in dusty environments without optical cleaning.

Local magnetic flux sensing tracks ferromagnetic tool wear and breakage with higher precision than force-based monitoring, even under contamination.

Pressure sensing in a chuck air channel detects 3-5 µm pallet gaps, improving clamping precision, machining security, and energy use.

By controlling sampling frequency, process period, and angle pitch, this case captures more cutting-tool measurement points for earlier abnormality detection.

A movable non-contact power feeder supplies sensors on a rotating tool holder while reducing chip adherence and easing tool exchange.

Camera-based knife edge imaging replaces operator judgment to sharpen food slicer blades at the right time and avoid over or under sharpening.

Sampling is timed to tool rotation so angle pitch stays within limits, increasing measuring points without high AD converter frequency.

A feeding fixture and position sensing keep curved extrusions accurately tracked for drilling, trimming, and thinning under dynamic forces.

Integrated vibration, crash, position, and temperature sensing enables real-time spindle diagnostics for predictive maintenance and less downtime.

A lateral piston and sliding wedge drive improve clamping bolt efficiency, protect against contamination, and support reliable bore clamping.

Adjustable cutting-tool spacing between guide rollers enables precise curved-part machining, reducing artifacts, rework, and labor.

During friction joining, misalignment is quantified from sensor or motor-load data so the second spindle can be corrected before the joint is completed.

A stepped recess and optical slit let presetting systems measure small tool axial length accurately without complex mechanical gauges.

Jaw chip data lets a hydraulic press tool match force to fitting size, reducing energy waste, jaw weight, and fatigue stress.

Multiple laser beams scan along the tool while exposure matches motion time, capturing high-contrast images without large illumination hardware.

AI recommends feature-specific machining sequences and parameters to improve quality, raise efficiency, and reduce tool wear.

A lateral piston and wedge gear shift clamping actuation off-axis, helping keep chips out of the expanded clamping bush.