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Rack & Pinions Drives
Rack & Pinions Drives

Ballscrew Drives

Ballscrew Drives

ATLANTA Drive Systems, Inc. has a complete range of precision-rolled ballscrew drives for applications requiring precise positioning and repeatability.  These drives can be used for duty cycles up to 100%, with high forces, linear speeds and efficiency.

The ballscrews and nuts all have right-hand threads.  We can also offer bearing blocks for supporting the ballscrew.

These drives are perfect for a wide range of applications, including axis drives requiring precise positioning & repeatability, pick & place robots, CNC routers and material handling systems.  Industries served include Material Handling, Automation, Automotive, Aerospace, Machine Tool and Robotics.

  • Product Range
  • Selection
Diameter d Lead Ballscrew Ball Nut Dynamic Load
Capacity C		 Static Load
Capacity Co
16 mm 5 mm KGS-1605 KGF-1605 2,091 lb. 2,945 lb.
10 mm KGS-1610 KGF-1610 3,462 lb. 5,957 lb.
20 mm 5 mm KGS-2005 KGF-2005 2,361 lb. 3,732 lb.
20 mm KGS-2020 KGF-2020 2,361 lb. 3,732 lb.
50 mm KGS-2050 KGF-2050 4,047 lb. 5,530 lb.
25 mm 5 mm KGS-2505 KGF-2505 2,766 lb. 5,058 lb.
10 mm KGS-2510 KGF-2510 2,968 lb. 5,688 lb.
20 mm KGS-2520 KGF-2520 2,921 lb. 5,238 lb.
25 mm KGS-2525 KGF-2525 3,755 lb. 7,239 lb.
50 mm KGS-2550 KGF-2550 3,463 lb. 7,126 lb.
32 mm 5 mm KGS-3205 KGF-3205 4,834 lb. 11,083 lb.
10 mm KGS-3210 KGF-3210 7,509 lb. 12,252 lb.
20 mm KGS-3220 KGF-3220 6,678 lb. 13,444 lb.
40 mm KGS-3240 KGF-3240 3,350 lb. 7,284 lb.
40 mm 5 mm KGS--4005 KGF--4005 5,351 lb. 14,185 lb.
10 mm KGS-4010 KGF-4010 8,544 lb. 15,534 lb.
20 mm KGS-4020 KGF-4020 7,487 lb. 17,108 lb.
40 mm KGS-4040 KGF-4040 7,869 lb. 22,908 lb.
50 mm 10 mm KGS-5010 KGF-5010 15,446 lb. 35,035 lb.
20 mm KGS-5020 KGF-5020 13,490 lb. 30,641 lb.
63 mm 10 mm KGS-6310 KGF-6310 17,086 lb. 44,290 lb.

Selecting the right ballscrew drive depends on many things, including accuracy and load requirements, support  type, design constraints, and cost.  They are typically selected based on the peak cycle forces, which usually happen during accelerations and decelerations.

These cycle forces depend on the weight being moved, the speed vs. time profile for the cycle, the friction of the axis bearings, and any other external forces acting on the axis.