Revolution Surface Grinding Machines TRIZ Cases

Air springs and vacuum chucks regulate pressure and simplify pad maintenance, resolving slurry supply issues for larger displays.

Vertical locking means decouple from the support frame to reduce device volume and improve stability during roller cleaning operations.

A double-disc straight groove grinding device processes multiple cylindrical workpieces simultaneously using radial grooves and eccentric rotation.

Gradient density sub-layers in fixed abrasive blocks compensate for wear, maintaining removal rates and extending working life.

Real-time circumference monitoring adjusts cutting depth during buffing, eliminating manual variability and ensuring consistent tire dimensions.

Coordinated head and tailstock movement aligns cylinder centre-lines, reducing setup time and complexity compared to traditional 3-axis loading systems.

Spherical coupling means rotates a workpiece attaching body along inclined surfaces, resolving the trade-off between minute angle precision and device rigidity.

Asymmetric wheel positioning reduces swivel slide weight, shortening machining time while maintaining operational versatility.

Dynamic abrasive wheel positioning minimizes the lever effect on small elongated workpieces, preventing bending or breaking during non-round profile machining.

An abrasive mesh module with integrated gas suction removes particles during honing to prevent clogging and maintain surface quality.

A grind hardening system directs coolant to cleaning nozzles to reduce tool loading and improve thermal efficiency.

Integrated inner tube creates a siphon effect to remove grinding dust without external power, while removable fenders protect users during wheel changes.

A grinding spindle head with swivelable support jaws grinds bearing points and supporting element seats simultaneously to reduce machining time.

A polishing apparatus simulator predicts liquid supply position effects on the profile to guide nozzle movement.

Merging external and internal grinding into one clamping state via a tailstock hollow quill eliminates reference axis shifts and concentricity errors.

A grinding device uses a convexly profiled control wheel to retain and feed rolling elements during lateral surface machining.

A flexible membrane in a carrier head applies elastic pressure to the retaining ring.

A height-adjustable support apparatus positions multiple workpieces with specific offsets to maintain consistent bearing angles against an inclined regulating wheel.

Segmented middle relief cylindrical surface enables precise shoe support during shaft grinding.

Axial grinding wheel movement replaces slow diagonal feeds, reducing processing time while maintaining structural strength of the tapered bulge.

Independent tool drives allow flexible machining of varying bearing widths without complex setup reconfiguration.

Segmented slurry paths and air springs distribute force evenly, preventing surface irregularities on large glass panels.

Defined target positions on a modular support piece eliminate complex linkages and calibration time while enabling precise measurement of eccentric workpieces.

Dynamic rough grinding switching adapts to wheel wear, reducing unnecessary finish processing time.

A grinding assembly uses independent radial and axial positioning systems to move dual grindstones for precise tire profiling.

An inclined heat exchanger cools a polishing surface via hydraulic lift, resolving temperature stability issues that degrade the polishing rate.

Iterative in-situ optical measurement eliminates clamping deviations and temperature drift during non-round workpiece grinding.

A deep rolling machine uses a liquid pressure medium to elastically support the power unit and shearing arms for precise crankshaft processing.

Splined rigid drum drives removable elastomeric cover that expands radially to grip abrasive tube, eliminating costly specialist repairs.

A rail reprofiling device uses a ceramic pickup segment to capture abrasive waste particles directly from the grinding jet.

Graded barrel worm tool geometry distributes load evenly to prevent premature end contact and partial wear during internal gear grinding.

A mill shell liner attachment assembly isolates bolt stress from channel plate pivoting movements, extending fastener life and reducing downtime.

Sandstone protective wrap files rod surface defects during operation, preventing packing wear and oil leaks in pumping systems.

Permeable bonded abrasive wheels reduce coolant disposal complexity and heat generation during high-speed cylindrical grinding.

An electromechanical rotary pipe mill uses radial displacement to remove material from tubular walls without axial movement.

Shearing arm geometry determines crankshaft engaging depth and rolling force through wire strain gauges, resolving contamination risks near the workpiece.