Automatic Control Devices TRIZ Cases

Hand-guided teaching and graphical programming make precise robot cutting mobile, safer, and usable in high-mix fabrication with minimal training.

Adjustable counterbalance, sensing, and clamping keep pad-forming force uniform and compensate sheet spring-back and off-plane misalignment.

An AI server adjusts feed, spindle speed, and cut-in from machine load data to raise machining productivity and flag abnormal operation.

Transition sections between adjacent machining strategies reduce material engagement, vibration, and tool load while preserving surface quality.

Keyed blank and counter impressions enable precise dental prosthesis positioning without temperature-sensitive probes or machine modification.

During self-piercing riveting, robot pose adjustment compensates tool bending to keep rivet placement accurate with lighter or longer tools.

Sensors, cameras, and probing logic locate tool position and material edges for more accurate guided cutting on smooth or flat surfaces.

Stored edge-shape data lets CNC control recalculate tool center and offsets during edge switching, preserving tip accuracy and shortening cycle time.

Using Z-axis position and spindle rotation instead of three linear moves, this case prevents deburring tool interference at cross-hole edges.

Multiple-sphere calibrator measurements at indexed rotary angles isolate five-axis geometric errors and enable automatic, precise compensation.

Predicts how plant door or shutter opening shifts machine temperature and machining accuracy, enabling better start timing with less energy use.

Automated superimposition control inserts programs and calculates geometry values in NC machine tools, cutting manual setup effort.

Vibratory excitation measures resonance on a still-attached watch or jewelry component, enabling machining adjustments before finishing.

By mapping hole periphery cutting to Z-axis motion and spindle rotation, this case avoids tool-workpiece interference and shortens deburring time.

A 3D milled calibration block and scan-based comparison replace manual alignment, improving CNC calibration accuracy while cutting setup time.

Inter-system feed speed override reduces vibration transfer between machine tool systems, improving machining accuracy with limited productivity loss.

Load current and Fourier-based Mahalanobis distance let the controller adjust motor speed early to prevent tool damage and defective machining.

By matching integrated temperature change with probe-measured reference position, this case selects optimal coefficients for accurate machine tool thermal correction.

Real-time underground sensing helps guide drilling and dowel placement in unknown structures, improving accuracy and reducing user error.

Multiple cutting edge shapes in one cutter ring let a machine tool form alternating screw grooves accurately without separate tool changes.

Predicts machining, shape, and assembly gap errors, then adaptively compensates each assembly plane to improve curved surface assembly quality.

Real-time vibration sensing adjusts spindle amplitude and period to stabilize machine tool chatter, reducing noise, wear, and damage.

Laser-based tracking and automated clamping align pipe machining tools in 3D, improving cut accuracy and reducing manual setup errors.

Automatic edge switching adds retract, rotation, and return paths to turning tool motion, cutting cycle time and manual programming effort.

Coolant-driven shaft displacement is used to detect when a cutting tool nears the workpiece, avoiding separate probing and setup delays.

Shared corrected robot teaching data cuts repeated manual setup and helps maintain reliable operation across multiple factories.

Optical wear-cue detection lets robotic abrading systems adjust force and replacement timing to sustain quality and extend abrasive life.

Force-sensed contact with fixture surfaces lets a robot compute a 3D loading point, avoiding manual jogging and reteaching in CNC loading.

Spherical joints, damping elements, and IMU gravity compensation improve axial force measurement and suppress oscillations in machining.

Vibration sensing during synchronous spindle rotation enables easier shaft alignment in machine tools while maintaining machining precision.

Variable oscillating tool motion helps axial forming match target shaft toothing geometry despite material and rigidity effects.

Real-time force sensing and deflection correction improve dimensional accuracy in subtractive manufacturing without extra finishing steps.

A rotatable post with sliding actuators positions machining tools inside hollow components, avoiding cramped manual repair work.

Temperature sensors on the guide rail let the control unit correct thermal expansion in real time and keep cutting paths accurate.

Real-time hydraulic pressure offsets cross-rail sag from saddle and ram movement, improving machining precision with lower maintenance cost.

Superimposed feed-direction oscillation breaks and discharges chips while reducing cutting-in shock that can damage the tool edge.

Phase adjustment between tool and relative vibration commands keeps composite vibration within limits, reducing load, wear, and precision loss.

Computing Minkowski subtraction boundaries as polyhedral cycles yields robust 3D machining paths for non-convex parts despite mesh inaccuracies.

Torque and thrust thresholds trigger motor current control during drilling, keeping feed per revolution stable and reducing tool wear.

Adjusting tool and workpiece vibration phase keeps composite vibration within limits, lowering machine tool load and wear in eccentric machining.

Point-cloud path transplantation and ultrasonic thickness measurement help mirror mill thin-walled parts despite deformation and surface mismatch.

Multiple temperature-to-displacement tables let a machine tool match local conditions and correct tool position more accurately.

Sensors detect nonvisual abrasive wear cues in robotic abrading, enabling timely parameter adjustment to avoid missed end-of-life signals.

Measured surface error is used to correct the cutting edge path during turning, maintaining accuracy despite tool wear and avoiding replacement downtime.

Adaptive CNC lathe commands vary inner-surface cutting depth and tool withdrawal points to cut machining time while protecting tool life.

Stored cutting-to-vibration mappings let the controller match amplitude and frequency to each cut, improving chip breaking while limiting tool damage.

Adaptive filter time constants matched to target distance help numerical control systems suppress gap sensor noise and reduce machine vibration.

Automatic tuning converts job attributes and target priorities into machine, cycle, and ancillary settings for precise, efficient machining.

Voxelized workpiece geometry and learned examples let the system set machining conditions for complex new parts without operator know-how.

Calculated swing control makes scratch intervals on gear tooth surfaces unequal, reducing meshing noise while maintaining machining quality.

An auxiliary unit between forward-facing spindles enables simultaneous front and back machining, cutting cycle time and machine complexity.

Waveform comparison from a proximity sensor reveals cutting edge breakage quickly, helping maintain machining accuracy after cutting.

Three position sensors and a controller automate angle and depth control to prevent overdriving or underdriving during screw driving.

Dual change indices track rapid and gradual temperature shifts to trigger machine tool accuracy checks and correction timing automatically.

A fixed laser, camera-based position detection, and a thermostable platform enable precise dental splint trimming without CAD setup or slippage errors.

A removable guide bushing and probe-based presetting let Swiss-type machine tools learn tool positions faster while preserving setup accuracy.

Real-time sensors and flexible heated cutting edges let CNC tools change shape automatically and correct wire lag for accurate material removal.

Reorienting a worn cutting element changes rake and clearance angles to extend tool life while preserving surface quality in CNC turning.

Unified parameter setting from the working machine updates the bar feeder automatically, cutting operator errors and machining failures.

A reversing rotary lifting cam improves gear shaping speed and engagement precision while preventing return-stroke cuts on internal and external toothings.

Image-based predictive control adjusts bowl feeder settings from part flow velocity to prevent jams and keep manufacturing lines moving.

A removable guide bushing and integrated probe let a Swiss-type machine tool preset tool positions automatically and cut manual setup time.

Controller communication matches hydraulic flow and travel speed to each implement, improving machine pairing and preventing damage.

Real-time spindle distance and speed data compensate shank and tool holder elongation, enabling precise machining without warm-up delays.

A unified NC feed scheme keeps drilling, positioning, and retraction continuous to cut hole-opening time and vibration at narrow spacing.

Automatic sub-fitting with tangent arcs replaces manual spline fitting in CNC work, improving curve accuracy and processing efficiency.

3D vision and universal fixtures replace dedicated nests and tooling, improving part repeatability while cutting changeover time and cost.

Partly meshed gear arms and a two-way cylinder enable precise, automated wheel centering for reliable high-volume production.

Gradually varying groove face angles at constant pitch lets precision machining create V-groove patterns with uniform color from a set viewpoint.

Overlaid lateral tool motion machines a dental restoration around the equator without separating unmachined pieces, cutting time and damage risk.

Sensor data and simulation models estimate machining state in real time, catching quality defects during cutting without slow post-process inspection.

Pulse-based return control calculates each vibration-cycle position from feed and vibration count to keep machine tool cutting accurate.

A radial sensor tracks distance changes on a rotary tool magazine to automatically find its origin point and reduce manual tool-change errors.

By averaging tool posture across adjacent path rows, this case reduces surface height variation and avoids ball end mill interference.

Mode-specific load thresholds separate idling from cutting loads to prevent tool damage and avoid unnecessary machining stoppages.

Vibration-triggered machining interruption stops chatter before defects and tool wear, then analyzes the signal to resume under better conditions.

Determination part stops learning control when oscillation amplitude drops below a threshold, preventing overshoot near machining endpoints.