Allen-Bradley 2098-DSD-HV030

Allen-Bradley 2098-DSD-HV030

Overview

The Allen-Bradley 2098-DSD-HV030 is a compact and reliable Ultra 3000 digital high-voltage servo drive that delivers efficient motion control for high-speed automation applications. With 230–460V AC three-phase input, it provides 7 A continuous and 14 A peak output current, ideal for mid-range torque servo systems. This unit integrates seamlessly into Rockwell Automation platforms and supports advanced motion control through optional communication modules.

Key Features

• Input Voltage: 230–460V AC, three-phase

• Continuous Output Current: 7 A

• Peak Output Current: 14 A

• Voltage Class: High Voltage

• Drive Type: Digital servo, Ultra 3000 series

• Mounting Style: Panel mount

• Feedback Options: Supports encoder and resolver feedback

• Control Interface: RS-232 standard; optional SERCOS/DeviceNet

• Diagnostics: LED indicators for status and fault codes

Technical Specifications

• Catalog Number: 2098-DSD-HV030

• Series: Ultra 3000

• Frequency: 50/60 Hz

• Motor Compatibility: Allen-Bradley servo motors

• Cooling: Fan-cooled

• Operating Temperature: 0°C to +50°C

• Certifications: UL, cUL, CE, RoHS

• Protection Features: Overvoltage, undervoltage, overcurrent, short-circuit, and overtemperature protection

Applications

• Servo-driven conveyors

• Indexing tables and pick-and-place machines

• Multi-axis robotics

• Material handling and packaging equipment

Why Choose the 2098-DSD-HV030

• Ideal balance of power and precision in a compact design

• Supports advanced motion profiles for automation systems

• Compatible with Rockwell control architecture

• Rugged and reliable for industrial applications

Order Now

The Allen-Bradley 2098-DSD-HV030 Ultra 3000 servo drive is in stock and ready to ship worldwide. 

NEW product in original sealed packaging. The product may be of older version or design. The packaging may have markings, signs of discoloration, and wear. DDPARTSSOLUTION Warranty: 1 Year. Manufacturer's Warranty and Support NEVER apply