RTLTE-302-VZ - Router B&B Electronics - Free user manual and instructions

USER MANUAL RTLTE-302-VZ B&B Electronics

Internaonal Headquarters

B&B Electronics Mfg. Co. Inc.

707 Dayton Road

Oawa, IL 61350 USA

Phone [phone] -- General Fax [phone]

Website: www.bb-elec.com

[e-mail]

European Headquarters

B&B Electronics

Westlink Commercial Park

Oranmore, Co. Galway, Ireland

Phone [phone] -- Fax [phone]

Website: www.bb-europe.com

[e-mail]

Document: SPECTRE User Manual R5_1414m

©2014 B&B Electronics Mfg. Co. Inc. No part of this publicaon may be reproduced or transmied in any form or by any means, electronic or mechanical, including photography, recording, or any informaon storage and retrieval system without written consent. Informaon in this manual is subject to change without noce, and does not represent a commitment on the part of B&B Electronics Mfg. Co. Inc.

B&B Electronics Mfg. Co. Inc. shall not be liable for incidental or consequential damages resulting from the furnishing, performance, or use of this manual.

All brand names used in this manual are the registered trademarks of their respective owners. The use of trademarks or other designaons in this publicaon is for reference purposes only and does not constitute an endorsement by the trademark holder.

This device complies with part 15 of the FCC Rules. Operaon is subject to the following two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operaon.

This device complies with Industry Canada license-exempt RSS standard(s). Operaon is subject to the following 2 conditions: (1) this device may not cause interference, and (2) this device must accept any interference, including interference that may cause undesired operaon of the device.

CONTENTS

Figure List 4

Table List....5

About 6

2.0 Safety Instrucons....6

2.1 Compliance 6
2.2 Product Disposal Instrucons....7

3.0 Router Descripon....8

3.1 Descripon....8
3.2 Examples of Possible Applicaons: 8
3.3 Contents of Package 9
3.4 Model Numbers....10
3.5 Dimensions....12

4.0 Mounng Recommendaons....13

5.0 User Interfaces 16

5.1 Connectors....16
5.2 Status Indicators 17

5.2.1 Auxiliary Port Status Indicators....18

5.3 Power Connector 19
5.4 Antenna Connector....20
5.5 SIM Card Reader 20
5.6 Ethernet Port 21
5.7 Ethernet Port 23

5.7.1 RS-232 Ports 23

5.7.2 RS-485/422 Ports 25
5.7.3 I/O Port 30

5.7.3.1 Analog Inputs....30
5.7.3.2 Binary Input 30
5.7.3.3 Counter Input 30
5.7.3.4 Binary Output 30
5.7.3.5 Selectng the Binary Input Current 31
5.7.3.6 Input/Output Connector....32
5.8 USB Port 38
5.9 I/O Port 39

6.0 Reseng or Reboong the Router....41

7.0 First Use 42

7.1 Starng the Router 42
7.2 Conguring the Router 42
7.3 Technical Parameters 42

8.0 Troubleshoong 45

8.1 FAQ 45

9.0 Customer Support 46

Maintenance: 46

FIGURE LIST

Fig. 1: SPECTRE LTE router....9

Fig. 2: Basic dimensions, metal box....12

Fig. 3: Space around antenna....13

Fig. 4: Cable roung....14

Fig. 5: Space in front of connectors....14

Fig. 6: DIN rail clip....15

Fig. 7: Removing the router....15

Fig. 8: Front panel SPECTRE LTE 16

Fig. 9: Front panel SPECTRE LTE with Wi-Fi....17

Fig. 10: Power connector.... 19

Fig. 11: Connecon of power supply connector .... 19

Fig. 12: Connecon of power supply.... 19

Fig. 13: External antenna....20

Fig. 14: Connecng the antenna 20

Fig. 15: Ejected SIM card holder....21

Fig. 16: Ethernet connector....21

Fig. 17: Ethernet cable conneccon....22

Fig. 18: Example of router conneccon 22

Fig. 19: RS-232 port connector.... 23

Fig. 20: Meter conncon to router.... 24

Fig. 21: PC conneccon to router.... 24

Fig. 22: RS-232 equipment conneccon to router.... 24

Fig. 23: Jumper Posion for external power supply.... 25

Fig. 24: Jumper posion for RS-485....26

Fig. 25: Jumper posion for internal power supply 26

Fig. 26: Jumper posion for RS-422....27

Fig. 27: RS-485/422 connector 27

Fig. 28: Connecon to the router with data cable length less than 10 m.... 28

Fig. 29: Connecon to the router with data cable length more than 10 m....28

Fig. 30: Connecon to the router with data cable length less than 10 m....29

Fig. 31: Connecon to the router with data cable length more than 10 m....29

Fig. 32: CNT I/O board 31

Fig. 33: CNT connector 32

Fig. 34: Connecon of the I/O Port circuitry 33

Fig. 35: USB connector 38

Fig. 36: USB connector 38

Fig. 37: Connecng a USB memory sck to the router 39

Fig. 38: I/O conncon 39

Fig. 39: Connecon I/O cable 40

Fig. 40: Connecon of binary input and output of router.... 40

Fig. 41: Router reset....41

TABLE LIST

Table 1: Auxiliary port possibilities.... 10

Table 2: SPECTRE 3G Model numbers....10

Table 3: SPECTRE LTE Model numbers for Verizon 10

Table 4: SPECTRE LTE Model numbers for AT&T.... 11

Table 5: SPECTRE LTE Model numbers for Sprint.... 11

Table 6: Front panel descripon .... 16

Table 7: Router status indicaon .... 17

Table 8: Ethernet LED status indicaon 18

Table 9: RS-232 LED status indicaon 18

Table 10: I/O Port LED status indicaon.... 18

Table 11: RS-485/422 LED status indicaon.... 18

Table 12: Wi-Fi LED status indicaon....18

Table 13: Connecon of power connector.... 19

Table 14: Ethernet connector....21

Table 15: RS-232 connector Pinout....23

Table 16: Connector Pinout in RS-485 Mode 27

Table 17: Connector Pinout in RS-422 Mode 28

Table 18: Input/Output Connector Pinout 32

Table 19: MODBUS Input/Output Address space 38

Table 20: Connecon of USB connector....38

Table 21: I/O port Connecon....39

Table 22: Ways to reset or restart the router 41

Table 23: General Specicaons 43

Table 24: Cellular Module Specicaons ...... 43

Table 25: Processor Specicaons....44

Table 26: I/O Port Specicaons 44

Table 27: Wi-Fi Specicaons....44

ABOUT

GPL license

Source codes under GPL license are available free of charge by sending an email to [e-mail].

Router version

The properes and sengs associated with the cellular network conncon are not available in non-cellular SPECTRE RT routers.

PPPoE conguraon is only available on SPECTRE RT routers. It is used to set the PPPoE conncon over Ethernet.

Declared quality system ISO 9001

This device complies with part 15 of the FCC Rules. Operaon is subject to the following two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operaon.

2.0 SAFETY INSTRUCTIONS

2.1 COMPLIANCE

PLEASE OBSERVE THE FOLLOWING INSTRUCTIONS:

THIS EQUIPMENT IS SUITABLE FOR USE IN CLASS I, DIVISION 2, GROUPS A, B, C, AND D HAZARDOUS LOCATIONS, OR NON-HAZARDOUS LOCATIONS ONLY.

WARNING – EXPLOSION HAZARD – DO NOT DISCONNECT EQUIPMENT UNLESS POWER HAS BEEN REMOVED OR THE AREA IS KNOWN TO BE NON-HAZARDOUS.

WARNING – EXPLOSION HAZARD – SUBSTITUTION OF ANY COMPONENTS MAY IMPAIR SUITABILITY FOR CLASS I, DIVISION 2.

CET ÉQUIPEMENT EST CONVENABLE EN CLASSE 1, DIVISION 2, GROUPES A, B, C, ET D ENDROITS DANGEREUX OU ENDROITS NON DANGEREUX SEULEMENT.

AVIS – RISQUE D'EXPLOSION – NE DÉCONNECTEZ PAS L'ÉQUIPEMENT, SAUF SI L'ALIMENTATION A ÉTÉ COUPÉE OU SI L'ENVIRONMEMENT EST CLASSÉ NON DANGEREUX.

AVIS – RISQUE D'EXPLOSION - SUBSTITUTION DE TOUTE COMPOSANTE RISQUERAIT LA QUALITÉ POUR CLASSE 1, DIVISION 2.

These devices are open-type devices that are to be installed in an enclosure suitable for the environment.

The router must be used in compliance with all applicable internaonal and naonal laws and in compliance with any special restricons regulang the use of the router in prescribed applicaons and environments.

To prevent possible injury and damage to appliances and to ensure compliance with all relevant provisions, use only the original accessories. Unauthorized modicaons or the use of unapproved accessories may result in damage to the router and a breach of applicable regulaons. Unauthorized modicaons or use of unapproved accessories may void the warranty.

Cauon! The sim card could be swallowed by small children.

Input voltage must not exceed 30v dc max.

Do not expose the router to extreme ambient condions. Protect the router against dust, moisture and high temperature.

The router should not be used in locaons where ammable and explosive materials are present, including gas staons, chemical plants, or locaons in which explosives are used.

Switch o the router when travelling by plane. Use of the router in a plane may endanger the operaon of the plane or interfere with the mobile telephone network, and may be unlawful.

When using the router in the close proximity of personal medical devices, such as cardiac pacemakers or hearing aids, proceed with heightened cauon.

The router may cause interference when in the close proximity of tv sets, radio receivers or personal computers.

2.2 PRODUCT DISPOSAL INSTRUCTIONS

The WEEE (Waste Electrical and Electronic Equipment: 2002/96/EC) direcve has been introduced to ensure that electrical/electronic products are recycled using the best available recovery techniques to minimize the impact on the environment. This product contains high quality materials and components which can be recycled. At the end of its life, this product MUST NOT be mixed with other commercial waste for disposal. Check the terms and conditions of your supplier for disposal informaon.

3.0 ROUTER DESCRIPTION

3.1 DESCRIPTION

The SPECTRE Cellular industrial router is used to wirelessly connect Ethernet equipment and other devices to the Internet or intranet. Thanks to the high data transfer speed of up to 100 Mbit/s download (LTE models) and 50 Mbit/s upload (LTE models), it is an ideal wireless soluon for trac and security camera systems, individual computers, LAN networks, automac teller machines (ATM) and other self-service terminals.

The standard conguraon includes one 10/100 Ethernet port, one USB Host port, one binary Input/output (I/O) port and dual SIM card holders. Network redundancy is provided by the second SIM card holder. It also contains 2 auxiliary ports for connecng to other types of networks such as RS-232, RS-485/422, Digital/Analog I/O, or they can be congured to provide additional switched Ethernet ports. The funcon of each port is dependent upon the specic router model.

Conguraon of the router may be done via a password-protected Web interface. The router supports the creation of VPN tunnels using IPsec, OpenVPN and L2TP to ensure safe communication. The Web interface provides detailed stascs about the router's advies, signal strength, etc. The router supports DHCP, NAT, NAT-T, DynDNS, NTP, VRRP, control by SMS, and many other funcons.

The router provides diagnosc funcons which include automacally monitoring the PPP conncon, automac restart in case of conncon losses, and a hardware watchdog that monitors the router status. The user may insert Linux scripts to control various router funcons and create up to four dierent conguraons for the same router. These conguraon les can include dierent SMS funconality and binary input conguraons. You may switch between dierent conguraons whenever necessary. The router can automacally upgrade its conguraon and rmware from your central server. This allows for mass reconguraon of numerous routers at the same me.

3.2 EXAMPLES OF POSSIBLE APPLICATIONS:

• Mobile oce
• Fleet management
• Security system
• Telemacs
• Telemetrics
• Remote monitoring
  • Vending and dispatcher machines

3.3 CONTENTS OF PACKAGE

The basic router package includes:

• Router
• Power supply
  • Crossover UTP cable
• External antennas
• Clips for the DIN rail
• Documentaon CD
• Quick Start Guide

BGB ELECTRONICS 8SPECTRE LTE OUT IN USR SIM2 SIM1 WAN DAT PWR AUX ANT RST 2 1 Out I In I/O USB PORT2 PORT1 ETH PWR

Fig. 1: SPECTRE LTE router with Wi-Fi

3.4 MODEL NUMBERS

Standard Features on SPECTRE Routers: 10/100 Ethernet, USB Host Port, Binary I/O Port, Dual SIM Card slots

Auxiliary Port Funcons (Model Dependent):

The Ports Can Be Connected As Follows:
PORT 1	RS-232, RS485/422, ETHERNET, CNT, XC-SW (in combinaon with PORT 2)
PORT 2	RS-232, RS485/422, XC-SW (together with PORT 1)

Table 1: Auxiliary port possibilities

SPECTRE 3G Wireless RoutersAuxiliary Ports
Model No.	Port 1	Port 2
RT3G-300	No connect	No connect
RT3G-302	No connect	RS-232
RT3G-304	No connect	RS-422/485
RT3G-310	No connect	Ethernet
RT3G-311	Ethernet	Ethernet
RT3G-314	Ethernet	RS-422/485
RT3G-322	RS-232	RS-232
RT3G-324	RS-232	RS-422/485
RT3G-330	12-bit I/O (AI, DI, DO)	No connect
RT3G-300-W	No connect	No connect
RT3G-310-W	Ethernet	No connect
RT3G-320-W	RS-232	No connect
RT3G-330-W	12-bit I/O (AI, DI, DO)	No connect
RT3G-340-W	RS-422/485	No connect
Note: “-W” Models Are Wi-Fi enabled

Table 2: SPECTRE 3G model numbers

SPECTRE LTE Wireless Routers (Verizon)
Auxiliary Ports
Model No.	Port 1	Port 2
RTLTE-300-VZ	No connect	No connect
RTLTE-302-VZ	No connect	RS-232
RTLTE-304-VZ	No connect	RS-422/485
RTLTE-310-VZ	No connect	Ethernet
RTLTE-311-VZ	Ethernet	Ethernet
RTLTE-322-VZ	RS-232	RS-232
RTLTE-324-VZ	RS-232	RS-422/485
RTLTE-330-VZ	12-bit I/O (AI, DI, DO)	No connect
RTLTE-300-W-VZ	No connect	No connect
RTLTE-310-W-VZ	Ethernet	No connect
RTLTE-320-W-VZ	RS-232	No connect
RTLTE-330-W-VZ	12-bit I/O (AI, DI, DO)	No connect
RTLTE-340-W-VZ	RS-422/485	No connect
Note: “-W” Models Are Wi-Fi enabled
SPECTRE LTE Wireless Routers (AT&T)
Auxiliary Ports
Model No.	Port 1	Port 2
RTLTE-300-AT	No connect	No connect
RTLTE-302-AT	No connect	RS-232
RTLTE-304-AT	No connect	RS-422/485
RTLTE-310-AT	No connect	Ethernet
RTLTE-311-AT	Ethernet	Ethernet
RTLTE-322-AT	RS-232	RS-232
RTLTE-324-AT	RS-232	RS-422/485
RTLTE-330-AT	12-bit I/O (AI, DI, DO)	No connect
RTLTE-300-W-AT	No connect	No connect
RTLTE-310-W-AT	Ethernet	No connect
RTLTE-320-W-AT	RS-232	No connect
RTLTE-330-W-AT	12-bit I/O (AI, DI, DO)	No connect
RTLTE-340-W-AT	RS-422/485	No connect
Note: “-W” Models Are Wi-Fi enabled

Table 3: SPECTRE LTE model numbers for Verizon

Table 4: SPECTRE LTE model numbers for AT&T

SPECTRE LTE Wireless Routers (Sprint)Auxiliary Ports
Model No.	Port 1	Port 2
RTLTE-300-SP	No connect	No connect
RTLTE-302-SP	No connect	RS-232
RTLTE-304-SP	No connect	RS-422/485
RTLTE-310-SP	No connect	Ethernet
RTLTE-311-SP	Ethernet	Ethernet
RTLTE-322-SP	RS-232	RS-232
RTLTE-324-SP	RS-232	RS-422/485
RTLTE-330-SP	12-bit I/O (AI, DI, DO)	No connect
RTLTE-300-W-SP	No connect	No connect
RTLTE-310-W-SP	Ethernet	No connect
RTLTE-320-W-SP	RS-232	No connect
RTLTE-330-W-SP	12-bit I/O (AI, DI, DO)	No connect
RTLTE-340-W-SP	RS-422/485	No connect
Note: “-W” Models Are Wi-Fi enabled

Table 5: SPECTRE LTE model numbers for Sprint

3.5 DIMENSIONS

Basic dimensions, metal box

50 mm 1.97 inches Space for data connectors and data cables 80.3 mm 3.16 inches 113.2 mm 4.46 inches 42 mm 1.65 inches DIN rail 35 mm 1.38 inches

Fig. 2: Basic dimensions, metal box

4.0 MOUNTING RECOMMENDATIONS

• The router may be placed on any at level work surface.
- Clips are included for moung the router to a standard DIN rail.

The router may be installed in an industrial instrument panel.

For best performance, please consider the following guidelines:

• When using the supplied whip antennas, maintain a distance of 6 cm from cables and metal surfaces on every side. When using an external antenna outdoors, lightning protecon should be used.
• When moung the router on a metal surface, an external antenna should be used.
• If the router is installed in a metal instrument enclosure, an external antenna must be used and it must be mounted outside of the metal enclosure.

60 mm 2.36 inches 60 mm 2.36 inches

Fig. 3: Space around antenna

The cables should be ed together and routed away from the antennas to avoid coupling RF noise onto the cables.

• Length: The combinaon of power supply and data cables can be a maximum of 1.5 meters.
- If the length of the data cables exceeds 1.5 meters or if the cable leads towards the switch panel, we recommend installing overvoltage protectors (surge suppressors).
- Do not bundle the data cables with 120/230V power cables.
• All wiring to sensors should use shielded twisted pairs.

Technical line drawing of a device internal structure with pipes and connectors (no text or symbols)

Fig. 4: Cable round

Leave enough space around the connectors for the round of cables.

50 mm 1.97 inches

Fig. 5: Space in front of connectors

We recommend using the instrument panel's earth ground for grounding the router's power supply, data cables and antenna.

4.1 MOUNTING THE ROUTER ON A DIN RAIL

Aach the DIN rail clip to the rear of the router using the 4 supplied screws. The spring clips should be mounted towards the boom of the router.

Close-up of a white metal enclosure with four screws and mounting holes (no text or symbols visible)

Fig. 6: DIN rail clip

Aach the boom of the DIN rail clip to the DIN rail. Push up on the router and It the router toward the rail to each the top of the clip to the DIN rail.

To remove the router from the DIN rail, push the router up slightly, so that the top part of the clip disengages, and then gently lt the router o of the DIN rail (See Figure 7).

DIN router ①

DIN router ②

DIN router ③

Fig. 7: Removing the router

5.0 USER INTERFACES

5.1 CONNECTORS

FRONT PANEL

Label	Connector	Descripon
PWR	2-pin	Power supply.
ETH	RJ45	Connecon to the local computer network.
PORT 1	RJ45	RS-232/422/485, ETHERNET, or I/O
PORT 2	RJ45	RS-232/422/485 or ETHERNET
ANT	SMA	Main cellular antenna.
DIV	SMA	Diversity cellular antenna.
AUX	RP-SMA	Wi-Fi antenna.
USB	USB-A Host	USB connector.
I/O	3-pin	Binary input and output.
SIM1	-	SIM card holder.
SIM2	-	SIM card holder 2

Table 6: Front panel descripon

DIV RST OUT IN USR SIM2 SIM1 WAN DAT PWR 2 1 ANT 3 2 1 Out ⊥ In I/O 1 4 USB PORT2 1 8 1 8 PORT1 1 8 ETH 2 1 - + PWR

Fig. 8: Front panel SPECTRE LTE

DIV RST OUT IN USR SIM2 SIM1 WAN DAT PWR 2 1 AUX ANT 3 2 1 Out ⊥ In I/O USB PORT2 PORT1 ETH 2 1 - + PWR

Fig. 9: Front panel SPECTRE LTE with Wi-Fi

5.2 STATUS INDICATORS

Label	Color	State	Descripon
		Blinking Slowly	Router is ready
PWR	Green	Blinking Quickly On	Firmware UpdateRouter is inializing.
WAN	Red	Blinking	Communicaon in progress
DAT	Yellow	Flashing	PPP conncon established
		1 x ash per second	Signal strength is from -50 dBm to -69 dBm
		2 x ash per second	Signal strength is from -70 dBm to -89 dBm or the dierence between neighboring cells is exactly 3 dBm
		3x ash per second	Signal strength is from -90 dBm to -113 dBm or the dierence between neighboring cells is smaller than 3 dBm
USR	Yellow	Funcon selected by user
OUT	Green	On	Binary output acve
IN	Green	On	Binary input acve
ETH	Green	OnO	Selected 100 Mbit/sSelected 10 Mbit/s
ETH	Yellow	OnBlinking Slowly Off	The network cable is connectedData transmissionThe network cable is not connected
PORT	Green	LED funcons for dierent router conguraons appear in the charts below.
PORT	Yellow	LED funcons for dierent router conguraons appear in the charts below.
SIM1	Yellow	On	SIM card 1 is acve
SIM2	Yellow	On	SIM card 2 is acve

Table 7: Router status indicaon

5.2.1 AUXILIARY PORT STATUS INDICATORS

5.2.1.1 Ethernet Ports

LED PORT INDICATOR
Green LED	On ...... selected 100 Mbit/sO ...... selected 10 Mbit/s
Yellow LED	On...... the network cable is connectedBlinking ...... data transmissionO ...... the network cable is not connected

Table 8: Ethernet LED status indicaon

5.2.1.2 RS-232 Ports

LED PORT INDICATOR
Green LED	Blinks on Receive data
Yellow LED	Blinks on Transmit data

Table 9: RS-232 LED status indicaon

5.2.1.3 I/O Ports

LED PORT INDICATOR
Green LED	Indicates binary input 0
Yellow LED	Indicates binary input 1

Table 10: I/O Port LED status indicaon

5.2.1.4 RS-485/422 Ports

LED PORT INDICATOR
Green LED	Blinks on Receive data
Yellow LED	Blinks on Transmit data

Table 11: RS-485/422 LED status indicaon

5.2.1.4 Wi-Fi

LED PORT INDICATOR
Green LED	Indicates Wi-Fi Power On
Yellow LED	Always O

Table 12: Wi-Fi LED status indicaon

5.3 POWER CONNECTOR

2-PIN PANEL SOCKET
Pin number	Signal mark	Descripon
1	VCC (+)	Positive input of DC supply voltage (+10 to +30 VDC)
2	GND (-)	Negave input of DC supply voltage

Table 13: Connecon of power connector

Fig. 10: Power connector

The router requires a +10 V to +30 V DC supply. Protecon against reversed polarity is built into the router.

The power consumption during receiving is 2.3W. The peak power consumption during data sending is 5.5W. For correct operation, the power source must be able to supply a peak current of 1A.

The power cable connects to the router via locking screws. (See Fig. 21)

Technical line drawing of a connector assembly with a cable and socket (no text or symbols)

Fig. 11: Connecon of power supply connector

Circuit example:

DC + - Router PIN 1 - VCC PIN 2 - GND

Fig. 12: Connecon of power supply

5.4 ANTENNA CONNECTOR

The two large cellular antennas are connected to the router using the standard SMA antenna connectors on the front panel. The main cellular antenna conncon is labeled ANT. The router cannot operate without a main antenna. The receive diversity antenna conncon is labeled DIV. This antenna improves the receive sensitivity of the router and should be used in areas with weak signal strength.

On SPECTRE Cellular routers with Wi-Fi, a third antenna is connected to the AUX antenna connector on the front panel.

The AUX connector on the Wi-Fi units is a reverse-polarity SMA connector and should only be used with the smaller Wi-Fi antenna. Do not aempt to connect the cellular antennas to this connector as it can damage the connector and the antennas.

Example of antenna:

Fig. 13: External antenna

Connect the antenna's SMA connector to the router's SMA connector. (See gure below).

Diagram of a cable being inserted into an electrical socket (no text or symbols present)

Fig. 14: Connecng the antenna

The diversity antenna improves the wireless features of the router

5.5 SIM CARD READER

The SIM card reader supports 3 V and 1.8 V Mini-SIM cards. It is located on the front panel of the router. The router will not operate on UMTS or LTE networks unless an acvated SIM card with an unblocked PIN is in the reader. The SIM cards may use dierent access point names (APN).

Changing the SIM card:

Press the small buon on the right hand side of the SIM reader slot to eject the SIM card holder. Insert the SIM card into the holder and slide it in the reader. (See Fig. 25)

Technical line drawing of a mechanical assembly with mounting flanges and internal components (no text or symbols)

Fig. 15: Ejected SIM card holder

5.6 ETHERNET PORT

PANEL SOCKET RJ45
Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	TXD+	Transmit Data – positive pole	Input/Output
2	TXD-	Transmit Data – negative pole	Input/Output
3	RXD+	Receive Data – positive pole	Input/Output
4	---	---
5	---	---
6	RXD-	Receive Data – negative pole	Input/Output
7	---	---
8	---	---

Table 14: Ethernet connector

Fig. 16: Ethernet connector

ATTENTION! The Ethernet port is not POE (Power over Ethernet) compatible!

Ethernet cable plugs into the RJ45 connector labeled as ETH.

Isometric line drawing of a device with two connectors, one connected to a wall-mounted panel (no text or symbols)

Fig. 17: Ethernet cable conneccon

The Ethernet router conneccon:

graph TD
    A["Switch"] --> B["Monitor 1"]
    A --> C["Monitor 2"]
    A --> D["Monitor 3"]
    A --> E["Monitor 4"]
    B --> F["Router"]
    C --> F
    D --> F
    E --> F
    style F fill:#f9f,stroke:#333

Fig. 18: Example of router conncon

5.7 ETHERNET PORT

Port 1

Port One may congured for Ethernet, serial communicaons (RS-232/485/422), or (I/O – CNT) based on the router model number. Port Two may be congured for serial communicaons (RS-232/485/422), or (I/O – CNT). Either port can be ed with internal switch XC-SW.

Port 2

Port 2 may be congured for serial communicaons (RS-232/485/422), or (I/O - CNT). Either port can be ed with internal switch XC-SW.

5.7.1 RS-232 PORTS

The RS-232 port is congured as a Data Communicaon Equipment (DCE). A KD2 adapter cable can be used to convert the RJ-45 connector to a standard DB9 serial connector.

Fig. 19: RS-232 port connector

Pin No.	Signal Mark	Descripon	Direcon
1	RTS	Request To Send	Input
2	CTS	Clear To Send	Output
3	DTR	Data Terminal Ready	Input
4	DSR	Data Set Ready	Output
5	GND	Signal ground
6	RXD	Receive Data	Output
7	CD	Carrier Detect	Output
8	TXD	Transmit Data	Input

Table 15: RS-232 connector pinout

Example of connecng a meter to the router:

graph LR
    A["Meter"] --> B["Router"]
    A -->|Pin 1 - GND| B
    A -->|Pin 2 - RXD| B
    A -->|Pin 3 - TXD| B
    B -->|Pin 1 - RTS| B
    B -->|Pin 2 - CTS| B
    B -->|Pin 3 - DTR| B
    B -->|Pin 4 - DSR| B
    B -->|Pin 5 - GND| B
    B -->|Pin 6 - RXD| B
    B -->|Pin 7 - CD| B
    B -->|Pin 8 - TXD| B

Fig. 20: Meter conneccon to router

Example of a PC conneccon to the router:

graph LR
    A["Computer"] -->|Cable KD-2| B["Router"]
    B --> C["IO"]
    B --> D["USB"]
    B --> E["PORT2"]
    B --> F["PORT1"]
    B --> G["ETH"]
    B --> H["PWR"]

Fig. 21: PC conneccon to router

- Cable KD2 is connected to serial port PC (example COM1)

Example of the RS-232 equipment conneccon to router (possibility to use all RS-232 ports):

graph LR
    A["Cable KD-2"] --> B["Router"]
    B --> C["IO"]
    B --> D["USB"]
    B --> E["PORT2"]
    B --> F["PORT1"]
    B --> G["ETH"]
    B --> H["PWR"]

Fig. 22: RS-232 equipment conncon to router

5.7.2 RS-485/422 PORTS

The RS-485/422 ports can be powered using the internal 3.3V supply or by connecng an external power supply to the port connector. External or internal power is selected by jumpers J2 and J3 on the RS-485 module daughter board. To use internal power, place jumpers J2 and J3 across pins 2 and 3. To select external power, jumpers J2 and J3 must be on pins 1 and 2.

Interface behavior of module Expansion port RS485/RS422 can be made by wiring Jumpers J4, J5 and J6 on the RS-485 module select the mode of the port – either RS-485 or RS-422 mode. If RS485 is required, jumpers J4 and J5 must be connected and jumper J6 disconnected. If RS422 is required, jumpers J4 and J5 must be disconnected and jumper J6 connected.

Jumper placement can be seen in the picture below (RS-485 module is viewed from the top).

Internal power supply should only be used in the event that it is not possible to provide an external power supply.

Fig. 23: Jumper Posion for external power supply

R1 R2 D2 D3 R4 R3 LQ1 1 2 J3 3 C8 U1 C1 R5 C2 R9 D1 P2 U2 C4 R6 C3 J4 1 2 J5 1 2 J6 1 2 1 2 1 2 3

Jumper J4 and J5

Fig. 24: Jumper posion for RS-485

R1 R2 D2 D3 R4 R3 Q1 1 2 3 J7 Jumper J3 C8 U1 C1 C2 R25 D1 R9 P2 U2 C4 J4 1 2 J5 1 2 J6 1 2 J2 Jumper J2

Fig. 25: Jumper posion for internal power supply

R4 R3 R1 R2 D2 D3 Q1 1 2 J3 3 C8 U1 C1 C2 1 2 J2 3 D1 R25 R9 P2 U2 C4 J4 1 2 J5 1 2 J6 1 2

Jumper J6
Fig. 26: Jumper posion for RS-422

Connector Pinout

Fig. 27: RS-485/422 connector

RS-485 Mode
Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	GND	Signal and supply ground
2	GND	Signal and supply ground
3	TxRx-	RS485 B (-)	Input/Output
4	TxRx+	RS485 A (+)	Input/Output
5	TxRx-	RS485 B (-)	Input/Output
6	TxRx+	RS485 A (+)	Input/Output
7	+12 V EXT	External power supply
8	+12 V EXT	External power supply

Table 16: Connector pinout in RS-485 mode

ATTENTION! The power supply is selected on the module board using the jumpers.

Note: In RS-485 mode, pins 3 and 5 and pins 4 and 6 are internally shorted together.

If galvanic separaon is required, the converter must use an external power supply.

graph TD
    A["Equipment"] -->|SGND RS485 (-) RS485 (+)| B["Router"]
    C["Equipment"] -->|SGND RS485 (-) RS485 (+)| B
    B --> D["DC +"]
    D --> E["Ground"]
    style B fill:#f9f,stroke:#333
    style A fill:#ccf,stroke:#333
    style C fill:#ccf,stroke:#333
    style B fill:#dfd,stroke:#333
    style D fill:#dfd,stroke:#333
    style E fill:#dfd,stroke:#333

Fig. 28: Connecon to the router with data cable length less than 10 m

graph TD
    A["Equipment"] -->|SGND RS485 (-) RS485 (+)| B["1X 1Y 2X 2Y"]
    C["Equipment"] -->|SGND RS485 (-) RS485 (+)| D["DC"]
    B --> E["OvPM-21"]
    D --> E
    E --> F["Router"]
    G["Pin 1 - SGND"] --> F
    H["Pin 2 - SGND"] --> F
    I["Pin 3 - RS485 (-)"] --> F
    J["Pin 4 - RS485 (+)"] --> F
    K["Pin 5 - RS485 (-)"] --> F
    L["Pin 6 - RS485 (+)"] --> F
    M["Pin 7 - +12V EXT"] --> F
    N["Pin 8 - +12V EXT"] --> F
    F --> O["+"]
    O --> P["Wire"]
    style A fill:#f9f,stroke:#333
    style C fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style E fill:#cfc,stroke:#333
    style F fill:#fcc,stroke:#333
    style G fill:#cff,stroke:#333
    style H fill:#ffc,stroke:#333
    style I fill:#ffc,stroke:#333
    style J fill:#ffc,stroke:#333
    style K fill:#ffc,stroke:#333
    style L fill:#ffc,stroke:#333
    style M fill:#ffc,stroke:#333
    style N fill:#ffc,stroke:#333
    style O fill:#fff,stroke:#333

Fig. 29: Connecon to the router with data cable length more than 10 m
With an RS-485 data cable longer than 10m, it is necessary to use overvoltage protecon on the router side!

RS-422 Mode
Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	SGND	Signal and power supply ground
2	SGND	Signal and power supply ground
3	RxD-	Receive Data (-)	Output
4	RxD+	Receive Data (+)	Output
5	TxD-	Transmit Data (-)	Input
6	TxD+	Transmit Data (+)	Input
7	+12V EXT	External power supply
8	+12V EXT	External power supply

Table 17: Connector pinout in RS-422 mode

ATTENTION! The power supply is selected on the module board using the jumpers.

If galvanic separaon is required, the converter must use an external power supply.

graph TD
    A["Equipment"] -->|SGND, TxD (-), TxD (+), RxD (-), RxD (+)| B["Router"]
    B -->|Pin 1 - SGDN, Pin 2 - SGND, Pin 3 - RxD (-), Pin 4 - RxD (+), Pin 5 - TxD (-), Pin 6 - TxD (+), Pin 7 - +12V EXT, Pin 8 - +12V EXT| C["DC"]
    C --> D["+"]
    D --> E["Wireless Circuit"]
    E --> F["Antenna"]

Fig. 30: Connecon to the router with data cable length less than 10 m

graph TD
    A["Equipment"] -->|SGND TxD (-)| B["OvPM-31"]
    A -->|TxD (+)| B
    A -->|RxD (-)| B
    A -->|RxD (+)| B
    B --> C["Pin 1 - SGND"]
    B --> D["Pin 2 - SGND"]
    B --> E["Pin 3 - RxD (-)"]
    B --> F["Pin 4 - RxD (+)"]
    B --> G["Pin 5 - TxD (-)"]
    B --> H["Pin 6 - TxD (+)"]
    B --> I["Pin 7 - +12V EXT"]
    B --> J["Pin 8 - +12V EXT"]
    B --> K["DC"]
    K --> L["+"]
    L --> M["Router"]
    M --> N["Wire"]
    style A fill:#f9f,stroke:#333
    style M fill:#ccf,stroke:#333

Fig. 31: Connecon to the router with data cable length more than 10 m

With a RS422 data cable more than 10m long, it is necessary to use overvoltage protecon on the router side!

5.7.3 I/O PORT

The I/O port user interface (CNT) is used to monitor analog and binary input signals and to control binary output signals. The interface has 6 inputs and 1 output. Two of the inputs can be congured as binary counter inputs or general purpose binary inputs. There are also 2 dedicated binary inputs, 2 analog current inputs, and 1 open-collector output. The opons for the I/O port are congured by wring to register values on the I/O board using the MODBUS ASCII protocol.

The unit can periodically store the values of the inputs in memory. These log entries can be read by reading the individual memory locaons. Up to 224 log entries may be stored. The logging interval can range from 1-65535 minutes.

5.7.3.1 ANALOG INPUTS

The analog current inputs have a range from 0 to 20mA. The input impedance is 100 Ω and the ADC resolution is 12 bits. The averaging and sampling period may be adjusted by the user. Also, alarms thresholds may be set for each input.

The ADC value stored in memory is calculated using the following equation:

$$ \text { ADC Value } = ((1 2 b \text { value } + \text { addit. constant }) * \text { mulplic. constant }) / 1 0 0 0 $$

where the constants are programmed into memory by the user.

5.7.3.2 BINARY INPUT

The binary input is sampled 8x per second with a sampling period of 1/64 seconds. The acve level for each binary input may be set to either a logic 0 or logic 1. The inputs may be congured to generate an alarm when they become acve. The input threshold for detectcng a logic 1 can be set at either 8uA or 20mA using a jumper on the module board.

5.7.3.3 COUNTER INPUT

The counter inputs have a maximum input frequency of 100 Hz. The minimum input pulse width is 1ms. The counter input may be congured to generate an alarm when a threshold is reached.

5.7.3.4 BINARY OUTPUT

The binary output is a transistor with an open collector output. In the inactive state (logic 0) the transistor is o. In the active state (log. 1), the transistor is on and will connect the output signal to ground (GND). The output transistor is rated at 100 mA and 30V.

The output may be congured to generate a pulse from 125 to 8000ms in length. It is also possible to congure the unit so that the output will become acve when counter 1 (CNT1) reaches a threshold.

5.7.3.5 SELECTING THE BINARY INPUT CURRENT

The input threshold for detectng a logic 1 can be set at either 8uA or 20mA using a jumper on the module board. When jumper J4 is shorted, the threshold current level is 20 mA. When jumper J4 is not shorted, the threshold current level is 8μA. A threshold current value of 20mA has a higher resistance to noise on the input but also dissipates more power.

D3 D4 01 02 C20 J3 8.2 U3 C3 C5 G1 G2 03 F1 M4 U1 [01] P1 P2 P3 P4 C5 C6 U2 C7 J2 [015] [013] [07] P30 P29 P22 [04] OJ4 [014] P23 P24 P23 [01] P10 P11 P12 P13 P14 [014] P15 P16 P17 [01] P25 P26 P27 [014] P28 P29 P30 [014] P31 P32 P33 [014] P34 P35 P36 [014] P37 P38 P39 [014] P310 P311 P312 P313 P314 [014] P315 P316 P317 P318 [014] P319 P320 P321 P322 [014] P323 P324 P325 [014] P326 P327 P328 [014] P329 P330 P331 P332 [014] P333 P334 P335 [014] P336 P337 P338 [014] P339 P340 P341 [014] P341 P342 P343 [014] P344 P345 P346 [014] P347 P348 P349 [014] P349 P350 P351 [014] P351 P352 P353 [014] P352 P353 P354 [014] P353 P354 P355 [014] P354 P355 P356 [014] P355 P356 P357 [014] P356 P357 P358 [014] P357 P358 P359 [014] P358 P359 P360 [014] P359 P360 P361 [014] P361 P362 P363 [014] P362 P363 P364 [014] P363 P364 P365 [014] P364 P365 P366 [014] P365 P366 P367 [014] P366 P367 P368 [014] P367 P368 P369 [014] P368 P369 P370 [014] P369 P370 P371 [014] P371 P372 P373 [014] P372 P373 P374 [014] P373 P374 P375 [014] P374 P375 P376 [014] P375 P376 P377 [014] P376 P377 P378 [014] P377 P378 P379 [014] P378 P379 P380 [014] P379 P380 P381 [014] P380 P381 P382 [014] P381 P382 P383 [014] P382 P383 P384 [014] P382 P38

Fig. 32: CNT Jumper J4

5.7.3.6 INPUT/OUTPUT CONNECTOR

PANEL SOCKET RJ45
Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	BIN1/CNT1	Binary input/counter input	Input
2	BIN2/CNT2	Binary input/counter input	Input
3	BIN3	Binary input	Input
4	BIN4	Binary input	Input
5	GND	Signal ground
6	OUT1	Binary output (open collector)	Output
7	AN1	Analog Current input	Input
8	AN2	Analog Current input	Input

Table 18: Input/Output connector pinout

Fig. 33: CNT connector

Typical conncon of the I/O port circuits:

graph TD
    A["+12VDC"] --> B["FU T500mA ZS2.5 WEDMAJILER"]
    B --> C["DA4"]
    C --> D["+12VDC"]
    D --> E["SIGNAL TERMINAL BLOK"]
    E --> F["2x COUNTER INPUT EC OPTOSensor ISO-12 FOR SENSUS WATER METER"]
    F --> G["DA4 - COM2/ XC-GNT"]
    G --> H["Pin: CNT1, CNT2, BIN3, BIN4, GND, OUT1, AN1, AN2"]
    H --> I["NAME: COUNTER/BIN. INPUT1, COUNTER/BIN. INPUT2, BINARY INPUT3, BINARY INPUT4, SIGNAL GROUND, ANALOGUE INPUT1, ANALOGUE INPUT2"]
    I --> J["Output: 1 AND 2 CAN RE USED ALSO AS BINARY INPUTS-> THEIR CONNECTION IS SAME AS CONNECTION OF INPUTS 3 AND 4"]
    J --> K["ON/OFF/OUTPUT LE-Y(STY 3×2×1.6)"]
    K --> L["Binary INPUTS/OUTPUT LE-Y(STY 3×2×1.6)"]
    L --> M["Analog/ANALOGUE SENSOR CURRENT LOOP 4-20mA"]

Fig. 34: Connection of the I/O Port circuitry

The I/O Port registers are read and wrien using MODBUS ASCII slave protocol over serial port 1. Using this protocol, it is possible to conjure the I/O board, read the input status, and control the output. The I/O port communicates at 9600 baud, 8 bits, no parity, and 1 stop bit (8N1).

ADDRESS SPACE
Address	Access	Description
0x0000	R/-	Firmware type
0x0001	R/-	Upper 16 bits of rmware version
0x0002	R/-	Lower 16 bits of rmware version
0x0003	R/-	Supports rmware characteriscsbit 0 – Analog input AN1bit 1 – Analog input AN2bit 2 – Counter input CNT1bit 3 – Counter input CNT2bit 4 – Binary input BIN1bit 5 – Binary input BIN2bit 6 – Binary input BIN3bit 7 – Binary input BIN4bit 8 – Binary output OUT1• bit 9 – Automac feeder control• bit 10 – Full duplex counter CNT1/CNT2
0x0004	R/-	Maximum log entries in buer
0x0005	R/W	Marker of log launching and alarms work
0x0006	R/W	Upper 16 bits of current me in seconds, numbered from 1/1/1970
0x0007	R/W	Lower 16 bits of current me in seconds, numbered from 1/1/1970
0x0008	R/W	Upper 16 bits of log entry mestamp
0x0009	R/W	Lower 16 bits of log entry mestamp
0x000A	R/-	Alarm actual status
0x0100	R/-	Binary input status
0x0200	R/W	Binary output status
0x0300	R/-	Recalculate value of analog input AN1 (with sign)
0x0400	R/-	Recalculate value of analog input AN2 (with sign)
0x0500	R/W	Upper 16 bits of counter CNT1 value
0x0501	R/W	Lower 16 bits of counter CNT1 value
0x0502	R/-	Prompt frequency CNT1
0x0503	R/-	Average frequency CNT1
0x0504	R/-	Minimum frequency CNT1
0x0505	R/-	Maximum frequency CNT1
0x0601	R/W	Upper 16 bits of counter CNT2 value
0x0601	R/W	Lower 16 bits of counter CNT2 value
0x0602	R/-	Prompt frequency CNT2
0x0603	R/-	Average frequency CNT2
0x0604	R/-	Minimum frequency CNT2
0x0605	R/-	Maximum frequency CNT2
0x0F00	R/-	0x0000 always
0x0F01	R/-	0x0000 always
0x0F02	R/-	Upper 16 bits of seconds, number from 1.1.1970
0x0F03	R/-	Lower 16 bits of seconds, number from 1.1.1970
0x0F04	R/-	Alarms status• bit 0 – acve level on input BIN1bit 1 – acve level on input BIN2bit 2 – acve level on input BIN3bit 3 – acve level on input BIN4bit 4 – analog input lower limit overrun AN1bit 5 – analog input upper limit overrun AN1bit 6 – analog input lower limit overrun AN2bit 7 – analog input upper limit overrun AN2bit 8 – limit frequency overrun CNT1bit 9 – limit frequency overrun CNT2
0x0F05	R/-	Binary inputs statusbit 0 – level on input BIN1bit 1 – level on input BIN2bit 2 – level on input BIN3bit 3 – level on input BIN4bit 6 – level on output BOUT1
0x0F06	R/-	Recalculate AN1 value (with sign)
0x0F07	R/-	Recalculate AN2 value (with sign)
0x0F08	R/-	Upper 16 bits CNT1
0x0F09	R/-	Lower 16 bits CNT1
0x0FOA	R/-	Prompt frequency CNT1
0x0FOB	R/-	Average frequency CNT1
0x0FOC	R/-	Minimal frequency CNT1
0x0F0D	R/-	Maximal frequency CNT1
0x0FOE	R/-	Upper 16 bits of counter CNT2 value
0x0F0F	R/-	Lower 16 bits of counter CNT2 value
0x0F10	R/-	Prompt frequency CNT2
0x0F11	R/-	Average frequency CNT2
0x0F12	R/-	Minimal frequency CNT2
0x0F13	R/-	Maximal frequency CNT2
0x1000	R/-	1. log – upper 16 bits of log number
0x1001	R/-	1. log – lower 16 bits of log number
0x1002	R/-	1. log – upper 16 bits of me stamps
0x1003	R/-	1. log – lower 16 bits of me stamps
0x1004	R/-	1. log – alarms status
0x1005	R/-	1. log – binary inputs status
0x1006	R/-	1. log – recalculate value AN1 (with sign)
0x1007	R/-	1. log – recalculate value AN2 (with sign)
0x1008	R/-	1. log – upper 16 bits CNT1
0x1009	R/-	1. log – lower 16 bits CNT1
0x100A	R/-	1. log – prompt frequency CNT1
0x100B	R/-	1. log – average frequency CNT1
0x100C	R/-	1. log – minimal frequency CNT1
0x100D	R/-	1. log – maximal frequency CNT1
0x100E	R/-	1. log – upper 16 bits of counter CNT2 value
0x100F	R/-	1. log – lower 16 bits of counter CNT2 value
0x1010	R/-	1. log – prompt frequency CNT2
0x1011	R/-	1. log – average frequency CNT2
0x1012	R/-	1. log – minimal frequency CNT2
0x1013	R/-	1. log – maximal frequency CNT2
0x1100	R/-	2. log
0x1200	R/-	3. log
...	R/-	...
0xEF00	R/-	224. log
0xF000	-/W	Samples stores period [min]
0xF001	-/W	Allowed:bit 0 – acve level on input BIN1bit 1 – acve level on input BIN2bit 2 – acve level on input BIN3bit 3 – acve level on input BIN4bit 4 – analog input AN1 lower limit overrunbit 5 – analog input AN1 upper limit overrunbit 6 – analog input AN2 lower limit overrunbit 7 – analog input AN2 upper limit overrunbit 8 – limit frequency CNT1 overrunbit 9 – limit frequency CNT2 overrun
0xF100	-/W	Binary inputs negave logicalbit 0 – input BIN1bit 1 – input BIN2bit 2 – input BIN3bit 3 – input BIN4
0xF200	-/W	Binary outputs normal levelbit 0 – output OUT1
0xF201	-/W	Feeder – impulse number on input BIN1/CNT1
0xF202	-/W	Feeder – impulse length on output OUT1 [1/8 sec]
0xF300	-/W	AN1 – samples period [sec]
0xF301	-/W	AN1 – mulpicave constant (with sign)
0xF302	-/W	AN1 – addive constant (with sign)
0xF303	-/W	AN1 – hysteresis value (with sign)
0xF304	-/W	AN1 – lower limit (with sign)
0xF305	-/W	AN1 – upper limit (with sign)
0xF306	-/W	bits 7-3:AN1 – metering circuit switch me0 → 1/64 sec1 → 2/64 sec...30 → 31/64 secbits 2-0:AN1 – samples number for average0 → 1 sample1 → 2 samples2 → 4 samples4 → 8 samples5 → 16 samples
0xF400	-/W	AN2 – samples period [sec]
0xF401	-/W	AN2 – mulpicave constant (with sign)
0xF402	-/W	AN2 – addive constant (with sign)
0xF403	-/W	AN2 – hysteresis value (with sign)
0xF404	-/W	AN2 – lower limit (with sign)
0xF405	-/W	AN2 – upper limit (with sign)
0xF406	-/W	bits 7-3:AN2 – metering circuit switch me0 → 1/64 sec1 → 2/64 sec...30 → 31/64 secbits 2-0:AN2 – samples number for average0 → 1 sample1 → 2 samples2 → 4 samples4 → 8 samples5 → 16 samples
0xF500	-/W	CNT1 – mulpicave constant
0xF501	-/W	CNT1 – upper limit
0xF502	-/W	CNT1 – me of limit overrun [sec]
0xF503	-/W	CNT1 – me for metering reset [sec]
0xF600	-/W	CNT2 – mulplicave constant
0xF601	-/W	CNT2 – upper limit
0xF602	-/W	CNT2 – me of limit overrun [sec]
0xF603	-/W	CNT2 – me for metering reset [sec]
0xFFFF	-/W	Switch main supply o on set me [min]

Table 19: MODBUS input/output address space

5.8 USB PORT

PANEL SOCKET USB-A

Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	+5V	Posive pole of 5V DC supply voltage
2	USB data -	USB data signal – negave pole	Input/Output
3	USB data +	USB data signal – positive pole	Input/Output
4	GND	Negave pole of DC supply voltage

Table 20: Connecon of USB connector

Fig. 35: USB connector

Example of connecng devices with a serial interface to the USB router:

graph LR
    A["PLC"] --> B["Transmitter USB/RS232"]
    B --> C["Router"]
    C --> D["IO"]
    C --> E["USB"]
    C --> F["PORT2"]
    C --> G["PORT1"]
    C --> H["ETH"]
    C --> I["PWR"]

Fig. 36: USB connector

Connecng a USB ash drive to the USB router:

graph LR
    A["USB"] --> B["Router"]
    B --> C["IO"]
    B --> D["USB"]
    B --> E["PORT2"]
    B --> F["PORT1"]
    B --> G["ETH"]
    B --> H["PWR"]

Fig. 37: Connecng a USB memory sck to the router

5.9 I/O PORT

3-PIN PANEL SOCKET
Pin No.	Signal Mark	Descripon	Data Flow Direcon
1	BINO	Binary input	Input
2	GND	Signal ground
3	OUTO	Binary output	Output

Table 21: I/O port conneccon

Fig. 38: I/O conneccon

The user interface I/O is for the processing of binary input signals and for control (sengs) of binary output signals. Binary output is not switched to ground in the default conguraon.

The maximum load for the binary output is 30V / 100mA. The constant current supplied by the binary input is 3 mA.

Connect the cable's I/O connector to the router's I/O port and ghten locking screws.

(See Fig. 35)

Technical line drawing showing a cable connector inserted into a device housing (no text or symbols present)

Fig. 39: Connecon I/O cable

Circuit example of a binary input or output connected to the router:

graph TD
    A["Router"] -->|+12V| B["Relay"]
    B --> C["PIN 1 - BIN"]
    B --> D["PIN 2 - GND"]
    B --> E["PIN 3 - OUT"]
    C --> F["Fuse"]
    D --> G["ESD"]
    E --> H["ESD"]
    F --> I["In"]
    G --> J["Out"]

Fig. 40: Connecon of binary input and output of router

6.0 RESETTING OR REBOOTING THE ROUTER

It is important to disnguish between reseng and reboong the router.

Acon	Router Behavior	Acons
Reboot	Turn o and then turn on router	Disconnect and connect the power.
		Press therebootbuon in the Web conguraon page.
Reset	Restore the factory default conguraon and reboot the router.	Press RST buon.

Table 22: Ways to reset or restart the router

Aer the green LED starts to blink you may restore the router's initial setngs by pressing buon RST on front panel. The router will restore its factory default conguraon and reboot (The green LED will be on).

To reset, use a narrow screwdriver. (See Fig. 37)

Technical line drawing of a mechanical component with a cylindrical rod inserted into a rectangular housing (no text or symbols)

We recommend backing up your router conguraon before reseng. (See the separate conguraon manual). A router reset will erase your conguraon and return the router to its default sengs.

7.0 FIRST USE

Before you can set up the router you will need to make all of the necessary connexons. The router cannot operate without a connected antenna, SIM card (for UMTS networks), and a power supply.

Operang the router without an antenna can damage the router.

7.1 STARTING THE ROUTER

Connect power to the router. In the default seng the router will start to login automacally to the preset APN. The Ethernet port DHCP server will assign device addresses. The behavior of the router can be modified by means of the Web or Telnet interface, as described in the conguraon manual.

The power consumption during receiving is 2.3W. The peak power consumption during data transmission is 5.5 W. For correct operation the power source must be able to supply a peak current of 1A.

7.2 CONFIGURING THE ROUTER

Aenon! The cellular carrier and network must be congured in the router prior to use. For UMTS and LTE networks, the router will not operate without a SIM card. The SIM card must be provisioned for the necessary network (LTE/HSPA+/UMTS/EDGE/GPRS). For 3G CDMA networks, the router is provisioned over-the-air. Refer to the Conguraon manual for details on conguring the router based on the cellular carrier and network.

Conguraon over Web browser

Monitoring of the status, conguraon and administraon of the router can be done via the Web interface. The default IP address of the router is 192.168.1.1. The username is "root". The password is "root".

A detailed descripon of conguring the router via the Web interface can be found in the conguraon manual

Conguraon over Telnet

Monitoring of status, conguraon and administraon of the router can be performed by means of the Telnet interface. The default IP address of the router is 192.168.1.1. The username is "root". The password is "root".

A detailed descripon of conguring the router via Telnet can be found in the conguraon manual.

7.3 TECHNICAL PARAMETERS

SPECTRE CELLULAR ROUTER
Complies with standards		EN 301 511, v9.0.2,EN 301 908-1&2, v3.2.1,ETSI EN 301 489-1 V1.8.1,EN 60950-1:06 ed.2 + A11:09 + A1:10UL CLASS I, DIV 2, GROUPS A, B, C, AND D
Temperature range	Funcon	-30^ to +60^
	Storage	-40°C to +85°C
Protecon		IP20
Supply voltage		10 to 30 V DC Class 2 Power Supply Only
Consumpon	Receive ModeTransmit: GPRSTransmit:UMTS/HSDPA/EVDO	2.3 Wto 3.5 W (GPRS transmission)to 5.5 W (UMTS/HSDPA/LTE transmission)
Dimensions		42x76x113 mm (DIN 35mm)
Weight		280 g
Antenna connector		SMA– 50 Ohm
SIM Card Interface		1.8V and 3.3V Mini-SIM Cards
User interface	ETHUSBPORT 1PORT 2	Ethernet (10/100 Mbit/s)USB 2.0 type A hostModel DependentModel Dependent

Table 23: General specicaons

CELLULAR MODE
LTE parameters	Bit rate 100 Mbps (DL) / 50 Mbps (UL)3GPP rel. 8 standardSupported bandwidth: 5 Mhz, 10 Mhz, 20 Mhz
HSPA+ parameters	bit rate 21.1 Mbps/5,76 Mbps3GPP rel. 7 standardUE CAT. 1 to 6, 8, 10, 12, 14Data compress 3GPP
UMTS parameters	PS bitrate – 384/384 kbpsCS bitrate – 64/64 kbpsW-CDMA FDD standard
GPRS parameters	bit rate 236 kbps/236kbpsGPRSmul-slot class 10, CS 1 to 4EGPRSmul-slot class 10, CS 1 to 4,MCS 1 to 9
Transmit power	UMTS/HSUPA/HSDPA/HSPA+ - (20dBm)EGSM900/GSM850 - Class 4 (33dBm)GSM1800/1900 - Class 1 (30dBm)
Supported channels	GSM/GPRS/EDGE: 850Mhz, 900Mhz, 1800Mhz, 1900MhzUMTS/HSDPA/HSUPA/HSPA+: 800Mhz, 850Mhz, 900Mhz,1900Mhz, 2100MhLTE: 800/900/1800/2100/2600 Mhz
32b ARM Microprocessor
Memory	512 Mb DDR SDRAM128 Mb FLASH1 Mb MRAM
Interface	Serial interface RS-232Ethernet interface 10/100Mbit/sUSB 2.0 interface

Table 24: Cellular module specicaons

Table 25: Processor specicaons

Port IO
Input/Output	Binary input	reed contact with trigger level 1.3 up to 1.4 V
	Binary output	120 mA/max. 30 V

Table 26: I/O port specicaons

WI-FI Specicaons
Power supply	Internal		+3,3V
Environment	Operang temperature		-15 .. +65 C
	Storage temperature		-20 .. +85 C
Standards	Emission		EN 55022/B
	Immunity		ETS 300 342
	Safety		EN 60950
	Isolaon		EN 60747
WI-FI specicaons(802.11 b/g/n)	RX Sensitivity	11b, 11Mbps	-85 dBm
		11g, 54Mbps	-70 dBm
		(HT20) 11n, MSC7	-66 dBm
		(HT20) 11n, MSC7	-62 dBm
	TX Output power	11b, 11Mbps	19 dBm
		11g, 54Mbps	16 dBm
		802.11n (HT20)	15 dBm
		802.11n (HT20)	15 dBm
	Internal Antenna Impedance		50 Ω
	Frequency band		2,4GHz

Table 27: Wi-Fi specicaons

8.0 TROUBLESHOOTING

8.1 FAQ

Q. I have NAT enabled. My equipment is not connecng to the network

- The device's gateway has to be congured as the router.

Q. The router resets itself and the Ethernet conneccon fails.

- The router will not funcon without an antenna. Keep the antenna as far as possible from the power supply.

Q. I can't access the Web server over NAT.

- The remote hp access of the router has to be disabled, the default server address has to be your web server and the gateway of the web server has to be the IP of the router.

Q. PPP conncon fails. (DAT LED o)

- Check signal power. If signal power is weak you will need a beer antenna. If the neighboring cells have a similar signal strength, you will need to use a direconal antenna. For proper operaon, the signal levels have to be in the range from -50dBm to -90dBm. It is necessary to set ping, which will check the conncon and, in the case of failed ping, restart the conncon.

Q. PPP conncon cannot be established. (DAT LED o)

• Recheck GPRS sengs - APN, name, password and IP address.
• Try to enter PIN – verify if the SIM card has the PIN code set.
  • In a private APN, switch the DNS server send o.
• Switch the system log on and observe where the error occurs.

Q. FTP doesn't funcon.

- Router doesn't support acve FTP mode. It supports passive mode only.

Q. RS-232 doesn't funcon.

- Verify that the router supports RS-232 communicaons. Also verify the RS-232 communicaon setngs. To do so, open the router's conguraon menu via the web browser, select the appropriate expansion port and verify the sengs in the conguraon menu.

Q. L2TP or IPSec isn't establishing.

- Check the system log for error messages.

Q. I switched the router to oine mode by SMS message, but the router is in online mode aer restart.

- SMS messages do not change the router conguraon. They remain in eect only until the router is restarted.

9.0 CUSTOMER SUPPORT

Up to date informaon product informaon is on the website:

hp://www.bb-elec.com/

For Technical Support:

Call 815-433-5100

MAINTENANCE:

Handle the SIM card carefully. Do not bend, scratch or expose the card to stac electricity.
Do not clean the router with harsh chemicals, solvents or abrasive cleaners.

B&B Electronics hereby declares that the router described in this user's guide to all basic demands of direcve 1999/5/EC (R&TTE).

Router ts values of coeficient SAR dened by associaon ICNIRP and values of “About protecon of health from non-ionized radiaon”.

Declaraon of conformity was issued and may be viewed on the accompanying CD or acquired from the manufacturer.