ProdataKey Red 1 Expander Quick Start Guide

Product Overview

The ProdataKey Red 1 Expander is a one-door expander for access control systems. This guide provides essential information for its installation and initial setup.

Part Number: R1E

Manufacturer: ProdataKey

Website: www.prodatakey.com

Support: prodatakey.zendesk.com

Phone: 801.317.8802

1. Mounting the Power Supplies

Description: This section details the mounting of power supply boards and backup batteries within an enclosure. Line up the power supplies with the top mounting brackets and fasten them using the supplied screws.

Diagram Description: An enclosure interior is shown with two power supply boards mounted at the top and space for two backup batteries at the bottom. Arrows indicate the mounting direction.

2. Mounting the Expander Board

Description: This section describes how to mount the expander boards within the enclosure. Select your desired mounting location, align the expander board with the mounting brackets, and secure it with the supplied screws.

Diagram Description: An enclosure interior is shown with multiple mounting locations for expansion boards, indicated by dashed red rectangles. Arrows show the mounting process.

3. Reader Connection

Description: This section explains how to connect a reader to the Red 1 Expander. Readers are typically mounted at the door and wired to the controller using 22/5 or 22/6 wire. Ensure correct polarity and voltage before powering the controller.

Diagram Description: A Red 1 Expander board is shown with a reader connected. Connections include power, data (OSDP), and a piezo buzzer. The OSDP jumper is highlighted.

• A Reader: Connects to the door controller.
• B OSDP: Jumper to enable OSDP communication. Refer to the OSDP reference guide for more information.
• C Piezo: Connects to an available relay and can be configured via software.

4. Input A / DPS Connection

Description: This section covers the connection of a Door Position Sensor (DPS) to Input A. The DPS is mounted on the door frame and wired using 22/2 wire. For double doors, wire both sensors in series.

Diagram Description: A DPS contact is shown connected to the expander board. A double DPS contact configuration is also illustrated, showing two sensors wired in series.

• A DPS (Door Position Sensor): Detects door status.
• B AUX Input: Can be programmed for event triggers.

5. Input B / REX Connection

Description: This section details the connection of a Maglock and a Request to Exit (REX) device to Input B. A Maglock is typically installed with a REX for free egress. Wiring is shown using 18/2 wire for the Maglock and 18/5 wire for the REX.

Diagram Description: A Maglock and a REX device are shown connected to the expander board. Connections include power, data, and auxiliary inputs. A jumper block is also indicated.

• A Maglock: Connects to the controller and REX.
• B REX (Request to Exit): Mounted for egress. If reporting is not needed, the green input wire can be omitted.
• C Jumper Block: Used for board voltage output to NO and NC. If the jumper is off, the relay acts as a dry contact.
• D AUX Input: Can be programmed for event triggers.

Note: If using a powered REX, connect it to any 12VDC output on the controller.

6. Locking Relay

Description: This section explains how to connect the locking mechanism using the expander's relay. A diode is required when using a strike, installed with the gray stripe on positive and black on negative.

Diagram Description: A strike is shown connected to the expander board via either Normally Closed (NC) or Normally Open (NO) terminals, depending on the configuration (fail-safe or fail-secure). A diode is shown in the strike wiring.

• A Diode: Must be installed with strikes; gray stripe on positive, black on negative.
• B NC: Used for maglocks or fail-safe strikes. Connect the negative (-) of the lock to NC.
• C NO: Used for fail-secure strikes. Connect the negative (-) of the strike to NO.
• D Jumper Block: Designates board voltage for NO and NC. If off, the relay is a dry contact.

7. Communication Connections

Description: This section covers network connectivity for the Red controller. All Red controllers feature a built-in RJ45 Ethernet connection for network connectivity. The controller is self-discoverable via pdk.io using IPv6, or can be configured with IPv4 or a static IP using pdk.io.

Diagram Description: An Ethernet cable is shown plugged into the Ethernet port on the Red 1 Expander board. A separate diagram shows optional Wireless (PN: RMW) and PoE (PN: RMPOE) module kits.

• A Ethernet: Built-in RJ45 for network connectivity.

Note: Wireless (PN: RMW) and PoE (PN: RMPOE) module kits are available for optional communication methods.

8. Power Connection

Description: This section details how to connect AC power to the power board. Connect unswitched AC power (120VAC 60Hz) to the terminals marked [L, G, N]. L connects to hot, N to neutral, and G to ground. Use 14 AWG or larger wire for all power connections. Secure the green wire lead to earth ground.

Diagram Description: AC power wires (L, G, N) are shown connected to the power board's AC input terminals.

• A AC Power: 120VAC 60Hz connection.

Disclaimer: Installers must adhere to all regulations and hold the proper state licenses before supplying voltage to the power supply.

Battery Backup: Battery backup is strongly recommended for all ProdataKey hardware. The recommended backup batteries for the Red Max are two 12V 12ah batteries.

Reference Guide

• Fire Input: Refer to wiring diagrams at www.prodatakey.zendesk.com for fire system integration.
• Programming: Access configuration software via the programming manual at www.prodatakey.zendesk.com after connecting the controller.
• Reader Compatibility: ProdataKey readers are not proprietary. Controllers accept Wiegand input, including biometric readers and keypads. OSDP readers are supported with an included jumper (see OSDP reference guide). Contact ProdataKey support for assistance.
• UL 294 Compliance: All equipment must meet appropriate UL certifications. For UL-listed installations, cable runs must be less than 30 meters (98.5').

OSDP Reference Guide

What is OSDP: Open Supervised Device Protocol (OSDP) is an access control communications standard developed by the Security Industry Association to improve interoperability and functionality. It offers enhanced security and supports AES-128 encryption, making it more secure than Wiegand.

OSDP Wire Specification: A four-conductor, twisted-pair cable with overall shield is recommended for TIA-485 compliance at maximum baud rates and cable distances. Existing Wiegand wiring can sometimes be reused, but simple stranded cable may not meet RS-485 recommendations.

OSDP Multi-Drop: Allows multiple readers on a single four-conductor cable, reducing wiring needs. A maximum of four (4) readers can be supported per port.

Note: Wiegand readers will not function when OSDP jumpers are installed.