Surface Double-Column Grinder Designed for Large Components
Okamoto’s ACC-32-80CHiQ surface double-column grinder is designed for high-precision grinding of large components and supports the high accuracy and efficiency needed for mold and die production applications.
Share
Okamoto’s ACC-32-80CHiQ surface double-column grinder is designed for high-precision grinding of large components and supports the high accuracy and efficiency needed for mold and die production applications. The double-column design and construction withstands prolonged heavy-duty grinding conditions. Double-V table way construction enables continued peak accuracy.
The grinder provides a consistently high degree of flatness across the entire workpiece surface. An exclusive “reform” mechanism automatically adjusts for cross rail slide wear without CNC compensation. A shift-plunge grinding cycle supports fast, efficient stock removal and the machine’s multi-level grinding capability enhances grinding flexibility. The standard 30-hp spindle motor and 20" diameter concave grinding wheel are designed to handle tough grinding requirements.
Standard features include a grinding wheel adaptor, hydraulic overhead wheel dresser with dress compensation, dresser stand with diamond tool, automatic oil temperature regulator, and spindle speed controller.
The ACC-32-80CHiQ’s table size is 32" × 80" (W × L), maximum pass width is 40" and maximum distance under a standard wheel is 23.5". Table load capacity including chuck is 5,512 lbs., and larger capacity models are available.
Related Content
-
5 Tips for Running a Profitable Aerospace Shop
Aerospace machining is a demanding and competitive sector of manufacturing, but this shop demonstrates five ways to find aerospace success.
-
How to Successfully Adopt Five-Axis Machining
While there are many changes to adopt when moving to five-axis, they all compliment the overall goal of better parts through less operations.
-
How to Mitigate Chatter to Boost Machining Rates
There are usually better solutions to chatter than just reducing the feed rate. Through vibration analysis, the chatter problem can be solved, enabling much higher metal removal rates, better quality and longer tool life.