GSi Lathes from Hardinge Designed for Small to Medium-Size Shops
The Hardinge GSi series of compact two-axis lathes are designed as low-cost, entry level machines small to medium-size manufacturing job shops and educational markets.
Edited by
The Hardinge GSi series of compact two-axis lathes is designed as low-cost, entry level machines small to medium-size job shops and educational markets. The series includes the GS150i and GS200i models.
“By minimizing costs, using existing designs, and leveraging our high-quality suppliers on standardized components, Hardinge has been able to create a very affordable, compact two-axis lathe, which offers many of the higher-end control features while not sacrificing machine rigidity, reliability and performance for this class of machine,” says Thomas Sheehy, global turning products specialist.
The GS200i is equipped with a 5,000-rpm spindle, while the GS150i has a 6,000-rpm spindle. Both machines offer rapid traverse rates of 30 m/min. and a turret indexing time of 0.45 sec.
A one-piece, rigid cast iron bed and base structure provides longer tool life and heavy cutting ability, the company says. Designed using finite element analysis (FEA) techniques, the machines share a ribbed, 45-degree slant bed design for easy access and chip removal. The headstock design also minimizes thermal displacement and assures continuous machining accuracy, according to Hardinge. The machines are said to provide full stroke positioning accuracy of 0.01 mm and full stroke repeatability accuracy of 0.005 mm on the X and Z axes.
RELATED CONTENT
-
Multitasking's "Big" Advantage
As demonstrated at this Cincinnati-area shop, machines that both mill and turn shine brightest when workpieces are massive.
-
Sometimes the Trickiest Part of CNC Machining Is Holding the Part
Finding a way to fixture contoured marine propellors proved to be this shop’s biggest challenge in developing an effective automated machining cell.
-
Threading On A Lathe
The right choices in tooling and technique can optimize the thread turning process.