- PLC Controllers
- Variable Frequency Drives (VFD)
- Motion Control & Servo Drives
- HMI Panels & Displays
- Industrial PCs, Panel PCs & Monitors
- Industrial Safety Components
- PLC I/O Modules
- Industrial Networking & Communication
- Power Supplies
- Push Buttons & Indicator Lights
- Industrial Relays & Timers
- Industrial Sensors & Switches
- Signal Interface Modules & Isolators
- Industrial Lighting Control
- Condition Monitoring Systems
- Circuit Protection Devices
- Terminal Blocks & Electrical Connectors
- Energy Monitoring & Power Meters
- Motor Control Components & Starters
Compare servo drives by axis count, network integration, safety approach, power architecture, and installation style. Allen-Bradley servo drives in the Rockwell Automation Kinetix portfolio include standalone, single-axis, shared-bus-capable, higher-axis-density, and distributed on-machine options, helping machine builders and industrial teams match the right platform to compact machines, larger systems, EtherNet/IP motion, and modular layouts.
Servo Drives for Industrial Motion Control
Servo drives are used in machines that require precise control of speed, torque, and position. Within the Allen-Bradley Kinetix portfolio, different servo drive families are designed around different machine needs, including standalone motion, single-axis control, shared power architecture, higher axis counts, and distributed on-machine installation.
For buyers comparing servo drives, the main decision points usually include axis layout, EtherNet/IP integration, safety method, cabinet versus on-machine installation, and how the drive fits the overall machine design. The Kinetix families separate these requirements across compact standalone platforms, single-axis EtherNet/IP drives, cabinet-based systems that can be applied in shared-bus architectures, higher-performance platforms for larger machines, and distributed servo drives for modular equipment.
Compare Servo Drives by Product Family
| Product family | Typical fit | Architecture style | Integration focus | Installation style |
|---|---|---|---|---|
| Kinetix 5100 | Standalone motion applications | Single product servo platform | Basic servo drive selection for self-contained use | Cabinet-based |
| Kinetix 5300 | Small- to medium-sized machines | Single-axis | EtherNet/IP motion with Logix-focused integration | Cabinet-based |
| Kinetix 5500 | Compact machines needing flexible power design | Single-axis, applicable in shared-bus systems | Integrated motion with broader architecture flexibility | Cabinet-based |
| Kinetix 5700 | Larger machines and higher axis counts | Single-axis and dual-axis modules within a higher-performance platform | Integrated motion and broader safety and feedback options | Cabinet-based |
| ArmorKinetix | Modular machine designs | Distributed servo drive approach | On-machine motion placement closer to the axis | On-machine |
Product Family Overview
-
Kinetix 5100 servo drives are suited to users looking for a standalone servo platform in a single product.
-
Kinetix 5300 servo drives are suited to small- to medium-sized machines that need single-axis EtherNet/IP motion control and Logix-oriented integration.
-
Kinetix 5500 servo drives are suited to compact machine designs that need single-axis control and can be applied in systems built around a shared AC/DC bus.
-
Kinetix 5700 servo drives are suited to larger custom machines with higher axis counts, higher power requirements, or broader integration and safety needs.
-
ArmorKinetix distributed servo drives are suited to modular equipment where on-machine installation can support layout flexibility and place motion hardware closer to the machine.
How to Compare Servo Drive Architectures
Servo drive selection usually starts with the physical and control architecture of the machine. Some applications only need straightforward single-axis motion, while others require denser motion systems, coordinated axes, shared power design, or distributed hardware mounted on the machine.
Cabinet-based single-axis drives can simplify sizing and panel layout. Platforms that can be used in shared-bus systems may be a better fit when power architecture and expansion matter more. Higher-end platforms support larger and more complex motion systems, while distributed servo drives can reduce the distance between drive and motor in modular machine designs.
Buyer Guide: What to Look for in Servo Drives
When comparing industrial servo drives, common selection factors include machine size, number of axes, network strategy, safety requirements, motor compatibility, and installation preference. In Rockwell Automation environments, EtherNet/IP integration is often a key consideration because it can influence controller coordination, motion design, and overall machine standardization.
It is also important to compare how each family is positioned within the broader system. Kinetix 5300 is commonly associated with smaller EtherNet/IP motion applications. Kinetix 5500 is often considered where compact cabinet-based control and shared-bus flexibility are relevant. Kinetix 5700 is aimed at larger systems with broader configuration needs. ArmorKinetix shifts the discussion toward distributed motion hardware and on-machine deployment. These distinctions affect wiring strategy, cabinet footprint, maintenance access, and future machine expansion.
Selection Summary by Machine Fit
-
Choose Kinetix 5100 when you want a standalone servo platform in a single product.
-
Choose Kinetix 5300 when you need single-axis EtherNet/IP motion for a small- to medium-sized machine.
-
Choose Kinetix 5500 when you need compact cabinet-based servo control with flexibility for shared-bus system design.
-
Choose Kinetix 5700 when your application involves larger machines, higher axis counts, or broader integration and safety requirements.
-
Choose ArmorKinetix when modular design and on-machine installation are key priorities.
Servo Drives, Safety, and Integration Trade-Offs
Different servo drive families are built around different trade-offs. Some are aimed at simpler standalone or single-axis use, while others are better aligned with shared-bus design, more advanced integration, higher axis density, or distributed installation.
For teams comparing Allen-Bradley servo drives, the most useful evaluation points are usually installation method, control architecture, safety strategy, network integration, and long-term machine expansion. Choosing the right servo drive is less about finding one universal platform and more about matching the drive family to the machine layout, motion requirements, and overall automation strategy.