Automatic Control Devices TRIZ Cases

Common probe traversing with maximum deflection detection measures multiple workpieces at once while limiting probe damage risk.

Cooling-constant measurement lets a power tool identify workpiece material and set feed, speed, and torque to prevent overheating.

Thermal influence calculation guides hole machining order to prevent workpiece deformation while reducing manual setup time.

Compensates machine tool position and posture errors by estimating axis-dependent and workpiece gravity deformation from mass and barycenter data.

Pre-punched hole positions on a bent letter box strip simplify side-frame and base-plate riveting while improving assembly speed and appearance.

Compensation based on column tilt, perpendicularity error, tool length, and diameter improves machining accuracy without grid-point setup.

Segmented vibration amplitude settings let a cutting tool adapt along the machining path, improving cutting flexibility, efficiency, and surface quality.

Coordinated NC control adjusts timing, frequency, and amplitude so oscillation cutting does not degrade precision in parallel machining systems.

Preliminary cutting detects burr positions and cutting errors, then displays them to guide correction and improve machine tool working efficiency.

An accessory-type detector lets a power tool identify the attached blade or accessory and automatically apply the right motor speed for safer, lower-wear operation.

Stored mode-selection history lets the robot auto-switch between automatic, manual, and hybrid modes to cut operator workload and switching time.

Actual 3D scan geometry is compared with CAD to correct finishing toolpaths, reducing manual setup and handling part variation.

By sensing resonance and damping at the tool holder, ultrasonic machining can detect material changes in real time and adjust parameters accurately.

Custom callback checks let an industrial machine controller verify tool offsets, work coordinates, and simulation steps to prevent user-caused machining failures.

Dynamic command shaping keeps rotary-axis motion within actuator bandwidth while coordinating linear axes to improve 5-axis machining throughput.

A calculated Ym-axis tool path keeps rotation speed constant, letting small grinding tools machine eccentric and concave shapes precisely with less vibration.

Adaptive feed force and speed control smooths drill entry and breakthrough to reduce composite delamination, burrs, and force instability.

A shared spindle traverse captures probe contact and deflection across multiple workpieces, cutting measurement time and sensor damage risk.

Force-guided tool changes and controlled lubrication cut milling force, wear, vibration, and heat across dry, flood, and MQL cutting.

Ground-bound conveying elements and movable carriages improve item flow between additive manufacturing stations while easing plant installation.

Drive-load inspection patterns detect rotary table clamp release faults early, reducing brake disc abrasion and avoiding premature spindle rotation.

Cutting-force monitoring and deviation-degree comparison identify chatter, deflection, wear, or friction causes and apply targeted feed corrections.

Camera overlays show cutting rotor contact lines through the enclosure, improving operator visibility and milling control.

Parallel machining keeps throughput high, while spindle-specific correction data enables accurate post-machining of each clamped workpiece.

Precomputed tool pass points and vibration waveforms let NC machining hold corner tolerances without slowing vibration cutting.

Simultaneous upper and lower edge chamfering with depth sensing avoids slag interference and cuts plate machining time.

A removable locking pin and tightening dowels let one coupling seat center and lock both Weldon and Quick tools while conveying cooling liquid.

By pre-positioning rotary axes and smoothing speed profiles, this case maintains constant tool tip feedrate and reduces surface marks.

A rotating workpiece and radially moving cutter follow a spiral path to machine curved housing corners faster with finer surface finish.

Coordinated multi-tool cutting shifts cutting points back and forth to break chips continuously without added machining time or higher vibration.

Real-time position feedback updates manipulator compensation parameters during machining to correct thermal and process-force deviations.

Proximity-sensor checks at the tool loading station catch missing or misattached coolant pipes before storage, preventing spindle coolant reflux.

Feature alignment and error calculation automate bending of malleable objects into target shapes, improving die forming precision and consistency.

Overlapping table positioning and tool depth motion shortens machining cycle time while avoiding edge contact and reducing power and heat.

Vibration data from the tool holder and spindle is used to predict chatter-free operating speeds, avoiding iterative test cuts.

Varying synchronized tool and workpiece speeds breaks periodic contact in gear cutting, reducing chatter while allowing higher cutting amounts.

A slitted PCD semi-finishing step removes streaks and limits tool chipping, enabling stable mirror finishing of stainless steel.

Dual upper and lower cutting portions machine slag-rough steel sheet edges in one pass while avoiding snagging and reducing machining time.