RF-Link Technology RFL NCM manual Port Loopback Settings, Baud Settings, Parity Settings

Page 44

Table 6. continued - Remote configuration settings (“P” codes)

P Code

Digit(s) And Switch Equivalent

Value (1)

Description

P04

B 0 0 0 0 0 0 0 0

00

Disable Loopbacks

 

↑ ↑ - - - - - -

01

Enable Ports 1 & 2 Equipment Loopbacks

 

PORT LOOPBACK SETTINGS

10

Enable Port 1 Payload Loopback

 

 

11

Enable Port 2 Payload Loopback

 

B 0 0 0 0 0 0 0 0

Not used

 

- - ↑ ↑ ↑ ↑ ↑ ↑

 

 

 

 

 

 

P05

B 0 0 0 0 0 0 0 0

000

2400

 

↑ ↑ ↑ - - - - -

001

4800

 

BAUD SETTINGS

010

9600

 

 

011

19,200

 

 

100

38,400

 

 

101

Undefined

 

 

110

Undefined

 

 

111

Undefined

 

B 0 0 0 0 0 0 0 0

000

None

 

- - - ↑ ↑ ↑ - -

001

Undefined

 

PARITY SETTINGS

010

Undefined

 

 

011

Undefined

 

 

100

Odd

 

 

101

Even

 

 

110

Mark

 

 

111

Space

 

B 0 0 0 0 0 0 0 0

00

7 Data Bits

 

- - - - - - ↑ ↑

01

8 Data Bits

 

WORD LENGTH SETTINGS

10

Undefined

 

 

11

Undefined

>> table continues on next page <<

RFL NCM

 

RFL Electronics Inc.

November 6, 2007

44

(973) 334-3100

Image 44
Contents RFL NCM RFL NCMDescription Specifications NMS Mode Ascii Character Addressing FormatInstallation RFL NCM MA-402I Module adapter, connector pinouts MA-485 Module adapter, jumper functions and TB1 pinouts MA-490 RFL NCM Front Panel View of RFL NCM, Network Communications Module Typical network example with all nodes having an NCM module At node 3, SW7 is set as follows Controls and indicators, RFL NCM Module Name/Description Function RFL NCM PRA Actel probe a NMS NMSDown SW2-3 SW2-4 Do not move SW10-4 Block diagram, RFL NCM module Functional DescriptionSystem Overview NCM Backplane and Power Connections TX Input PortsRX Output Ports Logic Array Actel DesignSCB Module Application Modes and InterfacesUart Receive Section Uart Transmit Section T1 Transmit ModuleT1 Receive Module Rogue ControlLOOP-BACKS Baud and Clock GeneratorTesting Power indicator should be litService LED should be illuminated green Test Equipment RequiredDS1 Power indicator should be lit DS1-B Equip OUT RXA LED should be illuminated red CH1 DS1-B Equip OUT CH2 Remote Control Using NMS NCM General Configurations and Status window for NodeModule Enable E1 SignalingTime Slot ModeTypical 3-node network using MA-485s 1 RS-485 port Bus a & Bus B Rogue DetectionNCM Address Configurations and Status window for Node Local CM AddressCM Address Passing Parity Baud RateData Bits Loopback TroubleshootingPort 2 Enable Codes Remote Control Using SCL CommandsChannel Card 3, Type 117 Under Remote Control Svce = on Multiplexer Addresscard ADDRESSSETP1 = B00000011 Srvc = on Srvc = OFFBUS a Setting BUS B SettingCAS Setting Timeslot SelectionPort Loopback Settings Baud SettingsParity Settings Word Length SettingsCM Address Pass Settings NMS Mode onlyApplication Mode SettingsCodes MUX Type & Configuration Status Type IDPort 1 Availability Port 2 AvailabilityApplication Configuration Status CM Addressing SupportPort 1 Application Status Port 2 Application StatusRXA Remote CM Address Current Actel REVPort 1 INPUT/OUTPUT Status Port 2 INPUT/OUTPUT StatusTXA/RXB Status for T1/E1 TXB/RXA Status for T1/E1Powerville Road

Network Communications Module, RFL NCM specifications

RF-Link Technology has emerged as a significant player in the realm of wireless communication, and one of its standout offerings is the RFL NCM (Network Communications Module). This module is designed to facilitate efficient and reliable data transmission in a variety of applications, making it a versatile solution for both industrial and commercial needs.

The RFL NCM is built on advanced RF technologies that support multiple communication protocols, ensuring compatibility with different systems and devices. One of its main features is its exceptional range. The module is capable of transmitting data over long distances, making it ideal for applications where devices are spread out. This long-range capability is essential for remote monitoring and control tasks, such as in smart agriculture, environmental monitoring, and industrial automation.

Another defining characteristic of the RFL NCM is its low power consumption. The module employs energy-efficient communication methods, enabling devices to operate for extended periods without frequent battery replacements. This makes it particularly useful in applications where power availability is limited or where continuous operation is required without maintenance interruptions.

The RFL NCM supports a variety of communication protocols, including LoRa, Zigbee, and MQTT, providing flexibility for developers and integrators to choose the most suitable technology for their specific applications. Its robust design ensures resilience in various operating conditions, including extreme temperatures and potential environmental hazards like moisture and dust.

Ease of integration is another strong point of the RFL NCM. With extensive documentation and support, developers can quickly incorporate the module into their existing systems. It also features built-in security protocols to safeguard data during transmission, which is particularly important in today’s increasingly connected world where data breaches are a growing concern.

The RFL NCM is not just about performance; it inherently supports scalability, allowing users to expand their network as their needs grow, whether that's adding more sensors to a monitoring system or integrating additional devices in a smart home. This commitment to both performance and adaptability makes the RFL NCM an attractive option for developers looking to harness the power of RF communications.

In summary, the RF-Link Technology RFL NCM stands out due to its long-range capabilities, low power consumption, support for multiple communication protocols, and robust integration features. With applications across various sectors, including industrial, commercial, and residential, this module promises to enhance connectivity and streamline operations in an increasingly wireless world.