Edge Grinding Machines TRIZ Cases

Segmenting the abrasive body from the reusable arbor structure allows quick replacement of worn components without discarding the entire assembly.

Rolling unbound diamond grains in fluid remove material independent of crystal orientation, resolving efficiency constraints.

A low-stress polishing device uses dynamic vibration to remove barrier materials efficiently.

A single driving shaft drives two grinding wheels to process drill bits simultaneously.

Mirror-finished chamfers on electronic grade glass substrates prevent fissuring under repetitive loads.

Segmented rotary vats with mechanical arms resolve the contradiction between high precision and large dimensions, enabling simultaneous multi-step cycles.

Dual-axis rotation automates complex edge grinding, eliminating manual adjustments and boosting productivity.

A method adjusts the blocking position of an ophthalmic lens to enable precise shaping of complex outlines using small-diameter machining tools.

Dual independent horizontal axes synchronize motorized conveyance to grind contoured glass sheets, eliminating complex machinery requirements.

Oxidizing and removing the fragile machining-affected layer on extrusion dies to prevent premature wear and maintain honeycomb cell wall integrity.

Segmented members maintain positioning reference between surfacing and edging, eliminating waste from disposable blocking pieces.

Parallel needle holding assemblies guide abrasive grinding wheels to create precise holes, eliminating ragged edges and exit burrs from conventional drilling.

Curved pressing members equalize tape contact time along substrate arcs, addressing uneven edge polishing and device damage from flat pressing.

A double-station wheel burr removal device uses synchronized rotating brushes to clean both wheels simultaneously.

Segmented planar portions on an ultrasonic bonding tool chip distribute stress to bond lead wires securely without fracturing thin glass substrates.

A processing control data acquiring apparatus detects lens geometry from demonstration images to generate precise faceting control data.

Laser ablation shapes lenses with low surface energy coatings, preventing slip and smelly substance release during machining.

A medical puncture needle with a curved blade surface extends the cutting edge length to reduce penetration resistance.

A rotating deburring apparatus uses three abrasive surfaces to remove burrs from cylindrical parts.

An inner-supporting device uses synchronized hydraulic cylinders and servo motors to clamp semifinished wheels for precise geometric correction.

A brushing unit with a curved contact area polishes edge bands using solvent-free fluids, removing separating agents without damaging decorative layers.

A servo-driven positioning system aligns cutter rotating centers with wheel rim burrs for precise removal.

Digital offset inputs shape non-uniform ridges to match bezel margins, eliminating mechanical interference and gaps in complex frames.

Two-stage wafer grinding method removes material from the back side using distinct grindstones.

Optical group detects abrasive tool contact zone images to resolve manufacturing precision versus device complexity trade-offs.

A profiled grinding wheel performs edge deburring and chamfering during the main machining cycle.

A two-arm clamping mechanism grips ophthalmic lens edges to enable secure handling and movement.

Grinding a 2.5 mm radius on the glass perimeter edge eliminates visual obstruction from traditional bezels while maintaining structural integrity.

Rotatable rollers support hand-held milling machines along pipe edges, reducing manual force and improving handling.

A media screening device captures noncompliant deburring media within a slurry basin during active operations.

Polished and blasted articulation surfaces reduce friction by capturing lubricant and wear particulates, extending prosthesis lifespan.

Dynamic axis-to-axis distance adjustment reduces axial deviation and processing sound by maintaining stable torque during roughing.

Nested encasing devices contain abraded particles during flow lapping, resolving safety hazards from escaping grinding medium.

Segments marking removal into abrasive grinding and fluid jetting stages to eliminate surface grooving and dust generation.

An anti-weight pressing device exerts radial force on short metal pipes, preventing them from falling out of conveying discs during deburring operations.

A light-shielding layer absorbs laser energy to create durable identification marks without damaging the underlying glass strength.

Fluid pressure supports the substrate periphery opposite the polishing tool, preventing bending and maintaining flatness during one-sided processing.

Real-time elastic modulus measurement drives pressure and temperature adjustments to prevent rounded edges and erosion.

A glass sheet edge grinding unit uses electric motors and pneumatic cylinders to drive interchangeable abrasive wheels for precise positioning.

A pneumatic ram guides a corundum rod against a grinding wheel to maintain constant thrust force during dressing operations.

A vibratory finishing fixture moves workpieces relative to a receptacle while a guide directs abrasive media flow.

Raised rings on the disk carrier manage pressure distribution to prevent excessive thinning at disk edges during planarization.

A tiltable support table and rotating tool post guide a grinding tool to remove non-stick materials from tire inner surfaces, eliminating manual control errors.

Servo-driven brushes adjust angles to remove stubborn flange and rim burrs, improving coating quality on aluminum alloy wheels.

A hybrid tool bonds magnetic abrasive to a metallic rod using an adhesive that dissolves in lubricant, transitioning the material from a fixed phase to a loose phase.

Separate mounting tables enable automatic exchange of a polishing substrate, maintaining throughput while preventing device footprint enlargement.

Curved tip injection needles place sensors at predetermined dermal depths, reducing tissue stress and improving fluorescence detection accuracy.

Automated grinding wheel changer exchanges tools to enable multi-material turbine rotor machining while reducing head weight and complexity.

Acquired image outlines determine blocking positions to eliminate offset between cut-out and presentation lens contours.

An offset stop surface on a grinding belt provides tactile feedback to prevent damage to underlying metal layers during fastener removal.