Edge Grinding Machines TRIZ Cases

Metal and tin solvent facilitates diamond sintering, reducing residual stresses to enable complex biomedical geometries.

An elastic compensating pad conforms to lens blanks during blocking.

Vertical oscillation prevents gravity-induced collision concentration, eliminating repetitive repositioning and reducing treatment time.

Vacuum rim holding eliminates blocking deformations, enabling precise rear-side geometry on plastic spectacle lenses.

A guide surface directs liquid-solid mixture flow to impose directional pressure, ensuring uniform material removal without multiple reorientations.

Real-time gap measurement drives dynamic flux adjustment, ensuring uniform polishing forces across varying curved surface geometries.

A compact spindle shaft integrates an electric rotary drive to rotate polishing tools directly.

An integrated dressing tool refurbishes the grinding wheel rim surface without removing the abrasive component from the machine.

Disposable abrasive inserts replace thermal welding to restore fitting seals, eliminating fuel leaks and specialized equipment requirements.

A centrifugal drive unit revolves workpieces to accelerate abrasive media against internal surfaces.

Motorized conveyance guides enable dynamic corner angle transformation, eliminating manual measurement operations and reducing processing costs.

Spring-mounted brushes float to maintain contact with varying spoke shapes, eliminating the need for multiple specialized brush replacements.

A conditioning apparatus preprocesses a polishing tape surface to remove loosely adherent abrasive particles before the substrate contact phase.

Segmented conveying discs separate stacked profiles to eliminate mutual screening during brush deburring.

Rotary polishing achieves 20 μm flatness on rectangular substrate side surfaces, resolving distortion in complex pattern transfer.

Selective laser sintering forms glass-reinforced nylon masks that shield non-target zones, preventing damage while improving surface finish.

Dynamic angle adjustment prevents collisions between high-curvature lenses and complex bezels while maintaining aesthetic appearance.

A driving mechanism adjusts the height and radial distance of a polishing pad supporting member during substrate processing.

A hard conversion coating remains on non-distressed steel areas during vibratory finishing to enable accurate temper burn detection.

Sonic jet cleaning prevents clogging and wafer edge lifting by maintaining vacuum flow consistency.

A wafer manufacturing method uses controlled chamfer radii and mirror-polishing to achieve uniform edge geometry.

A lens processing apparatus shifts bevel apex positions to form balanced slopes on high curve frames.

A wheel polishing apparatus uses servo-driven guide rails to move a polishing head along the wheel back cavity contour.

A skate squaring device uses a magnetic main frame to attach securely to a sharpening fixture for precise blade alignment.

Automated bevel modification tools shape lens edges to prevent interference with high curve frame protrusions.

A ski edge deburring device uses sequential shallow and steep angle processing elements to shape burrs.

A lens blocking device tilts the workpiece relative to the rotation axis to configure machining parameters for precise optical surface generation.

An acoustic emission fluid sensor detects elastic waves from grinding wheel contact, reducing machine complexity while maintaining precise phase alignment.

A swinging polishing head resolves unstable tape tension by pivoting the head to maintain consistent contact pressure and improve material removal rates.

A hand-operated blade sharpener uses a clamping mechanism and abrasive stone to engage the blade at pre-selected angles.

Centrifugal finishing polishes internal channels in additively manufactured parts without geometric distortion or difficult abrasive removal.

Optical copying replaces mechanical alignment mechanisms to suppress circumferential variation in notchless wafer chamfered shapes.

A glass composition with controlled Al2O3 and Na2O ratios achieves high surface strength in articles under 100 μm thick.

A grinding tool with multiple abrasive portions mounted directly to a shank enables sequential edge processing without intermediate tool changes.

Calculates optimal rotational speed from mean sphere difference and cylinder values to balance surface conformity with productivity.

Conical guide sections enable wobbling rotation for uniform deburring, preventing radial thread damage on large diameter elements.

A decorative element uses a faceted microstructure and reflective layer to reflect light through the body.

A sheet glass tool anchors abrasive grains in a stepped anchoring layer to enhance coolant flow.

Self-aligning guide sleeves reduce manufacturing tolerances and device complexity while maintaining high-speed grinding performance.

Elastomer foam replaces abrasive grit in rock tumbling to achieve higher polish quality while reducing processing time and preserving shape retention.

Ultrasonic vibration on a rotating diamond blade trims wafer edges, reducing chipping and contamination while increasing processing speed.

Centrifugal forces in the peripheral chamber discharge excess agent, preventing contamination and sticky deposits without stopping the process.

A holding jig with disk-shaped guard members prevents tank collisions during vibratory barreling, protecting large workpieces from deformation.

Spring-loaded chamfering mounts compensate for workpiece deviations, preventing mechanical jamming and ensuring continuous bevel formation.

Pneumatic elastic abrasives prevent edge chipping and reduce grain consumption during hard, brittle material processing.

Magnetic repulsive forces adjust the vacuum plate position to maintain flatness during polishing and cleaning.

A driver assistance system for combine harvesters predicts optimization targets from operator strategy selection behavior.

Iterative geometry parameter variation optimizes gemstone cut designs to maximize brilliance and fire while reducing dark zones.

A machining method rotates workpieces along orbital paths to achieve uniform material removal.