Oriental Motor GFV5G100 Product Overview
The Oriental Motor GFV5G100 is a high-torque parallel shaft spur gearhead engineered for heavy-duty industrial automation setups. It is designed for direct mechanical integration with Oriental Motor’s 120 W (1/6 HP) brushless DC pinion shaft motors, such as the BLM series components utilized with BMU and BLE2 drive controllers. Featuring a robust 90 mm (3.54 in.) square flange frame layout, this gearhead provides a maximum 100:1 speed reduction and corresponding torque multiplication to support precise, low-speed high-load operations.
Key Technical Specifications
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Gearhead Type: Parallel Shaft / Spur Gearhead
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Gear Ratio: 100:1
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Frame Size: 90 mm (3.54 in.)
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Output Shaft Diameter: 18 mm (Metric Shaft with Keyway)
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Rotation Direction: Opposite direction to the motor rotation
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Rated Lifetime: 10,000 Hours
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RoHS Compliant: Yes
High-Torque Mechanical Layout and Load Capacities
Constructed with precision case-hardened spur gears, the GFV5G100 minimizes internal mechanical friction and backlash to maintain rigid velocity control under variable load profiles. Due to the high-reduction gear train configuration, the output shaft rotates in the opposite direction of the motor shaft. When paired with a 120 W motor, the gearhead safely accommodates a substantial permissible overhung (radial) load of up to 550 N at 10 mm from the shaft end (600 N at 20 mm) along with a continuous permissible axial thrust load limit of 150 N.
Maintenance-Free Industrial Integration
The GFV5G100 features a fully sealed, factory-lubricated enclosure, completely eliminating the need for periodic grease replenishment throughout its entire 10,000-hour rated operating span. By reducing the base motor velocity by a factor of 100, it transforms a standard 80 to 4000 r/min motor range into a highly stable 0.8 to 40 r/min output at the 18 mm shaft. Standardized structural dimensions and included mounting hardware permit immediate, secure coupling to automated conveyor systems, heavy-duty packaging machinery, and precise indexing stages.
