Edge Grinding Machines TRIZ Cases

A coupler and spline shaft assembly relocates actuation within a wheel mount to transmit torque vertically.

Vertical tapering on the two-facet blade edge extends lifespan by resisting dulling in high-volume processing.

Interchangeable inserts in a universal base container hold spectacle lenses at precise axial dimensions, eliminating stage-specific variability.

A punctiform contact adapter guides stepped shafts during grinding to minimize axial run-out and angular errors.

A polishing head uses a diaphragm to elastically deform and synchronize pressing forces across the wafer and dress ring.

Congruent ceramic articulation surfaces distribute contact forces uniformly, preventing stress concentrations that cause fracture while reducing wear.

A grinding machine uses pivotable spindle sets to process closely adjacent workpieces simultaneously.

Variable abrasive pellet sizes compensate for peripheral speed differences during simultaneous wafer grinding to maintain flatness.

Curved polishing pads and angle-dependent rotation maintain uniform contact on complex geometries, resolving mirror finish limitations.

Shaped inserts divert abrasive media to ensure uniform smoothing of curved inner surfaces.

Rotating finishing members travel along a track that mimics complex three-dimensional edge profiles for consistent surface treatment.

Servo-driven tapered brushes remove burrs from wheel center holes and bolt cavities, preventing coating defects and corrosion.

A temporary adhesive composite film provides reliable pad adhesion on hydrophobic lenses, preventing slippage while preserving surface properties.

A weighted meshed shell rotates components during sandblasting to enable abrasive penetration through its porous structure.

Dynamic speed adjustment maintains constant load torque, suppressing axis deviation and ensuring precision when grinding slippery water-repellant lenses.

Radially opposed pockets in the hydrostatic pad reduce bending moments from grinding wheel misalignment, preventing nanotopology degradation.

A mobile woodworking machine uses a rotating lamellar polishing wheel to apply wax and buff furniture panel edges.

Spherical fastening surfaces enable three-dimensional oscillation, preventing semilunar defects and ensuring uniform contact across the workpiece.

Helical impeller movement synchronizes rotation and translation to eliminate abrasive particle stagnation zones during turbomachine polishing.

A horizontal container arrangement with vibration generates relative movement between abrasive elements and the rotor surface for uniform strengthening.

Single acrylic adhesive sheet prevents axial misalignment of spectacle lenses during edging, eliminating separate lock tape steps.

Mechanical polishing creates a wedge-shaped fiber optic dielectric waveguide structure, eliminating hazardous chemical etching for reliable modal multiplexing.

Mechanical abrasion replaces toxic acid etching in superconducting radio-frequency cavities, eliminating weld pits and preserving high quality factors.

Grinding the back surface to Sa≤1nm prevents warpage, eliminating costly back-side polishing steps.

Radial positioning teeth and magnets secure circular blades to prevent off-axis movement, ensuring uniform sharpening.

A tilting mechanism adjusts the processing axis angle to cut high-curve lenses, reducing equipment complexity while maintaining manufacturing precision.

A shape-memory support element provides rigid attachment for semi-finished optical components.

Segmented edge grinding, washing, and thermal processing resolve productivity versus coating durability contradictions in photovoltaic module production.

Automated eyeglass lens processing apparatus uses image-based detection to calibrate drilling tools and lens shapes without dedicated hardware.

Rotational media flow from eccentric vibration finishes 3D printed parts, eliminating material-specific solvent trials.

A vibratory tumbler bowl locks via a spring clip and lever, enabling quick removal while reducing noise.

A lens processing device uses a measuring system to determine an optical reference point for precise edge orientation.

Varying engagement ridge inclination and depth functions across the lens periphery to resolve mounting gaps in highly skewed eyeglass frames.

A roller bed and knife box device automate burr cutting on aluminum wheels.

Automated ophthalmic lens pair processing reconciles centering data before cutting to prevent mounting inaccuracies and reduce handling errors.

An automated burr removing device employs a dynamically adjustable brush system to resolve the contradiction between fixed tooling and varied wheel geometries.

Segmenting tool supports onto a swivel module resolves cantilever deformation and bulky motor requirements, enabling accurate ophthalmic lens machining.

A double-side polishing apparatus uses a laser beam passing through an upper plate window to measure wafer thickness.

A core cleaning apparatus uses abrasion belts and a cutting blade to remove debris from roll cores.

A tire flash removal machine uses sensors to detect contours and move sanding assemblies for automated defect elimination.

Liquid bonding material cures inside cavities to hold eyeglass lens blanks, preventing deformation during milling.

Dual rotating segment brushes enter the belt edge surface to remove burrs, eliminating jig requirements and preventing belt fall during processing.

Pressurized chamber maintains elevated gas pressure at the tube exit to control abrasive particle velocity during cleaning operations.

Track-supported saws cut expansion joints in wet slabs without sinking, using laser guidance for precise alignment.

Side wall electrodes on substrate surfaces enable reliable circuit board connections while reducing bezel areas.

Segmented abrasive rings on a rotating peripheral wheel reduce machining lines and improve edge quality without requiring multiple tools or passes.

A lens processing apparatus positions thermoplastic eyeglass lenses at multiple angles for roughing tool engagement.

Uniform inner surface concavity from core drawing resolves blind hole irregularities, ensuring sufficient drawing strength without needle breakage.