LoRaMESH Wireless Gateway
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LoRaMESH Wireless Gateway

​Concentrator provideing individual communication with nodes using 433/470/868/915MHz radio frequency interface.
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Product Introduction

 

LoRa Wireless Smart Lighting Solution

Concentrator provideing individual communication with nodes using 433/470/868/915MHz radio frequency interface.

In addition to its master functions, concentrator controls all electrical equipment in the cabinet, collects data from electric meter and other connected devices and sends live status of overall Lora system to server via GSM/GPRS/4G mobile net. Programing of concentrator and light scheduling are performed remotely from the software.

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Smart Lighting Control System l Functions

(Smart LED Driver Integaraged with LoRa node controller, installed into the housing of each luminaire. It controlled by Concentrator via LoRa. Provide load control (on/off) as well as dimming function on luminaires.)

Features

 

 

Manual and Automatic remote control of individual lamps, groups or streets using programmed date and time rules for brightness changes.

 

Displays status and diagnostic information from each lamp controller.

 

Data concentrator units (DCU) provide local street level control over up to 250 lamps each.

 

Specification

Model Name

SLGJ2-OLORA-XXX

Standby Power

<5W

Input Voltage

100-277V

Frequency

50/60Hz

Communication

LTE 4G / LoRa

Radio

490/865/868/915 MHz

Modulation

FSK/LoRa/OOK

Receiver Sensitivity

-142dBm@SF=12, BW=125HZ

-136dBm@SF=10, BW=125HZ

-126dBm@SF=7, BW=125HZ

RF Tx Power

Max 18 dBm

Radius

15km

Point-to-Point Range

2 km

Control Capacity

250 Nodes

Surge Protection

10 kV

IP

66

Weight

3 kg

Operating Temperature

-40°C ~ 70°C

Certificate

CE-RED

 

The installation process of the outdoor streetlight LoraMesh smart control system typically involves the following steps:

Site Survey: Before installing the LoraMesh smart control system, a site survey is conducted to determine the placement, quantity, and surrounding environment of the streetlights, as well as the coverage range of the LoraMesh signal.

Design Planning: Based on the survey results, a design plan is developed for the LoraMesh smart control system, including determining the installation locations of the node devices, wiring methods, and gateway device placement.

Node Device Installation: Following the design plan, install the LoraMesh node devices near the streetlights. These node devices can be smart controllers or LoraMesh communication modules. Ensure that the installation positions meet the requirements and that the devices are connected properly.

Gateway Device Installation: Install the LoraMesh gateway device, typically in a centralized location that can receive LoraMesh signals effectively, such as rooftops or elevated structures. The gateway device needs to be connected to power and the internet to function correctly.

Node Device Integration: Connect the node devices to the gateway device to establish the LoraMesh network. Configure the device parameters to ensure proper integration into the LoraMesh network.

 

System Debugging and Optimization: Perform system debugging and optimization for the installed LoraMesh smart control system. Verify the communication quality between the node devices and the gateway device, and adjust device parameters to optimize network coverage and stability.

 

Functional Testing: Conduct functional testing of the LoraMesh smart control system, including remote control of brightness, time control, and fault detection functionalities.

 

Network Connectivity Testing: If the system requires connectivity with a cloud platform or other management systems, perform network connectivity setup and testing to ensure the system can be remotely monitored and managed.

 

System Acceptance: After testing and debugging, conduct a final acceptance process. Verify whether the system meets the requirements and confirm with relevant departments or clients.

 

These are the fundamental steps involved in the installation process of the outdoor streetlight LoraMesh smart control system. Each step requires professional expertise and thorough testing to ensure the proper functioning and realization of system functionalities.

Central Management Software (CMS)

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competitive advantage
 

Loramesh smart control street lighting system offers advantages such as energy saving, reduced maintenance costs, enhanced safety, environmental friendliness, and data analysis capabilities. It helps cities achieve intelligent management and improve overall urban quality.

Energy saving

The Loramesh system intelligently adjusts the brightness of street lights based on road conditions and ambient light levels, avoiding unnecessary energy waste and saving significant energy costs for cities.

Reduced maintenance costs

By employing a smart lighting management system, the Loramesh system enables real-time monitoring of street light operation, allowing for prompt detection and repair of faults, thus reducing manual inspections and maintenance costs.

Enhanced safety

The smart street lighting system enables remote monitoring and management of street lights, ensuring their stable operation and improving the safety of nighttime driving and pedestrian activities.

 

Data analysis

The system collects extensive data on street light usage, and through analysis, it provides valuable insights into lighting patterns and usage trends, enabling more informed decision-making and scientific management strategies.

The product components of LoraMesh Concentrator include:
1

Main control board: The main control board is the core part of the LoraMesh concentrator and is responsible for handling the reception, processing and forwarding of data. It usually consists of a high-performance processor and memory, with strong computing and storage capabilities.

2

Communication module : The LoraMesh concentrator is equipped with a Lora communication module for wireless communication with other Lora devices. Lora is a low-power, long-distance wireless communication technology suitable for IoT application scenarios.

3

Network interface : LoraMesh concentrators usually have an Ethernet interface or a Wi-Fi interface for connecting to the Internet. Through the network interface, the concentrator can interact with the cloud platform or other external systems.

4

Power interface : There will be a power interface on the concentrator for connecting a power adapter or battery to power the device. At the same time, it is also necessary to ensure the stability and security of power supply.

5

Antenna : The LoraMesh concentrator will be equipped with an antenna for receiving and transmitting Lora signals. Antenna design and selection are critical to the communication range and stability of the device.

6

Housing and heat dissipation design : LoraMesh concentrators usually adopt a solid housing to protect the internal circuitry from the external environment, and have good heat dissipation design to ensure the stability and reliability of the equipment during long-term operation.

 

FAQ

Q: What is the use of LoRa mesh network?

A: By extending the LoRaWAN standard with mesh networking, networks gain incredible range (ideal for remote forests, nature reserves, or disaster zones), enhanced resilience (nodes can reroute data if one fails), and the flexibility to easily scale with growing needs.

Q: What is the difference between LoRa mesh and LoRaWAN?

A: In summary: LoRa is the signal and only contains the PHY layer protocol. (It will therefore be a little cheaper.) LoRaWAN links the signal to the application/s, so will contain the data transfer layer as well, enabling you to send the data to any device already connected to the cloud.

Q: What is the range of the LoRa mesh network?

A: A networking protocol that enables LoRa devices to communicate in a mesh network. A media access control (MAC) layer protocol built on top of the LoRa physical layer, defining the communication protocol and system architecture for the network. Long range (2-5 km in urban areas, 15+ km in rural areas).

Q: What is the advantage of using LoRa?

A: LoRa technology belongs to low speed wireless solutions that are only for the industrial object Internet. It stands out by its ultra long range (about 15 km) reception and transmission of which the spectrum allows several million devices to be covered without the slightest difficulty.

Q: Why use LoRa instead of WiFi?

A: If you're looking to connect devices across long distances with minimal power consumption, then LoRaWAN is for you. LoRaWAN can connect battery-powered devices even when spread out and with reduced power consumption compared to traditional WiFi.

Q: Why is LoRa so good?

A: LoRa is ideal for applications that transmit small chunks of data with low bit rates. Data can be transmitted at a longer range compared to technologies like WiFi, Bluetooth or ZigBee. These features make LoRa well suited for sensors and actuators that operate in low power mode.

Q: Can LoRa go through walls?

A: Therefore, the penetration ability of LoRa wireless module is stronger than that of traditional FSK and GFSK modules. Generally, it can penetrate about 7 or 8 walls, but the ability to penetrate walls is also affected by external factors, such as wall thickness, cement steel material, weather environment, etc.

Q: Can LoRa work without antenna?

A:

Can LoRa work without antenna?

You can connect the LoRa module without the antenna connected. It shouldn't affect the power distribution. However, I'd like to point out that Reach M2 required proper ventilation to operate correctly. Otherwise, it can overheats.

 

 

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