Configured for engine generator monitoring and synchronization in industrial power generation networks, the Woodward EASYGEN-3000 (EASYGEN-3100/3200 Genset Control) provides direct physical/electrical execution.

Suffix Breakdown & Model Matrix

• EASYGEN-3100: Switch cabinet back-mounting variant engineered for internal panel integration without direct front-fascia operator interface access.
• EASYGEN-3200: Front-panel flush-mounting variant equipped with an integrated local operator display and navigation keypad for direct configuration.

Hardware Specifications

Actuator Loop Feedback Response and Governor Control

The integrated governor control architecture processes actuator loop feedback response to regulate fuel delivery and engine speed under dynamic load conditions. Precision high-speed PID loops maintain frequency regulation and active power sharing across parallel generator sets. The internal sampling circuitry processes 100 VAC and 400 VAC voltage references alongside 1 A or 5 A current transformer measuring inputs to compute real-time phase angles, voltage vectors, and active/reactive power metrics. Static-sensitive electronic control stages incorporate robust internal transient suppression to mitigate electrical noise interference within harsh industrial switchgear environments.

Frequently Asked Questions

Q: What are the primary physical mounting differences between the EASYGEN-3100 and EASYGEN-3200 variants?

A: The EASYGEN-3100 is engineered for switch cabinet back mounting, whereas the EASYGEN-3200 is designed for front-panel flush mounting with an integrated display interface.

Q: What current transformer secondary ratings are supported by the measuring inputs?

A: The system natively supports both 1 A and 5 A secondary current transformer (CT) measuring inputs.

Q: How does the unit handle power supply voltage inputs?

A: The hardware accepts 100 VAC and 400 VAC direct voltage inputs for comprehensive sensing and synchronization tasks.

Field Installation Guidelines

• Ensure all power sources are completely isolated and locked out prior to physical handling or wiring termination.
• Ground the unit chassis securely to the switchgear backplate or ground bus using low-impedance copper conductors to prevent electromagnetic interference.
• Route low-level measuring input lines (CT and potential transformer circuits) separately from high-voltage power cables to maintain signal integrity.
• Verify correct torque specifications on all screw terminal blocks to prevent intermittent contact resistance under vibration.
• Inspect static-sensitive electronic components using proper ESD grounding straps during installation and wiring procedures.