NX1P2-9024DT1 | Omron | CPU Sysmac NX1P

Description

Executing localized high-speed synchronization and industrial network communication, the Omron NX1P2-9024DT1 acts as the central processor for Sysmac-driven automated systems. This unit integrates physical inputs and outputs directly onto the main controller body, offering 14 inputs and 10 PNP outputs. Designed to unify motion, logic, and networking within a single platform, the module supports up to 8 EtherCAT nodes (including 2 synchronized motion axes and 4 position-controlled axes) alongside dedicated EtherNet/IP connectivity for seamless factory floor communication. Ideal for small to mid-sized machinery, it ensures high execution speeds with a primary periodic task cycle time down to 2 ms, using 1.5 MB of program memory and 2 MB of variables memory.

Key Technical Features

• Synchronized Motion Control: Supports 2 synchronized motion axes and 4 positioning axes via EtherCAT master control.
• Onboard I/O Configuration: Equipped with 24 built-in I/O points (14 inputs, 10 PNP/Source outputs) to eliminate unnecessary expansion modules.
• Dual Network Protocols: Built-in ports for both EtherCAT (for real-time motion/device level networks) and EtherNet/IP (for host and peer-to-peer data exchange).
• Flexible Expansion: Option to attach up to two NX-series option boards directly to the CPU front panel for serial RS-232C/RS-422A/485 communications or analog I/O.
• Battery-free Operation: Utilizes non-volatile memory backup for user programs and system variables, reducing scheduled hardware maintenance.

Industrial Applications

• Material Handling Systems: Precise control of sorters, smart conveyors, and gantry pick-and-place assemblies.
• Packaging Equipment: Form-fill-seal machines, vertical packagers, and wrapping machinery demanding synchronized electronic camming.
• Semiconductor Processing: Cleanroom handling arms and wafer transport lines requiring high-speed deterministic networking.
• Assembly & inspection: Multi-axis positioning stages and rotary index tables integrated with machine vision systems.

Technical Specifications Table

Connections and Interfaces

Empirical Engineering Insights

Alternative Models & Compatibility

This model utilizes the DT1 suffix, identifying it as a PNP/Source transistor output module. Be highly cautious during system upgrades: replacing an NX1P2-9024DT (which uses NPN/Sink outputs) with the DT1 version requires re-wiring the field actuator common terminals to prevent direct short-circuits. Complete program migration from older CJ or CP series hardware is fully supported via the standard Sysmac Studio conversion wizard, but direct physical I/O mapping must be reassessed due to terminal designation changes.

Application Pitfalls & Engineering Notes

When configuring complex EtherCAT topologies, avoid exceeding the physical node limit of 8 units. If more nodes are required, a higher-tier NX102 or NJ CPU is required. Additionally, ensure the total current draw of the auxiliary sensors powered from the CPU terminal block does not exceed rated limits. Operating near the 55 degC thermal boundary inside enclosed IP54 cabinets requires vertical orientation on the DIN rail and a minimum 30 mm top and bottom clearing distance to ensure natural convective cooling.

Commissioning & Wiring Tips

Always use STP (Shielded Twisted Pair) Cat5e or higher cables for the EtherCAT network to prevent high-frequency electromagnetic interference generated by adjacent variable frequency drives (VFDs) from dropping connection packets. Ensure the shield of the network cable is properly terminated to the system ground bus bar. During commissioning, firmware synchronization is strictly checked by Sysmac Studio; make sure the firmware project settings align exactly with the physical CPU's revision level before attempting project downloads.

Installation Guidelines