4G LoRaWAN Gateway | Industrial 8-Channel Outdoor and Indoor IoT Gateway

4G LoRaWAN Gateway for Industrial IoT, Smart Farms and Remote Sites

A 4G LoRaWAN gateway receives wireless packets from LoRaWAN sensors, GPS trackers, livestock collars, personnel badges, smart meters and other IoT devices. It then forwards the data to a LoRaWAN network server through a 4G LTE cellular connection.

Conventional LoRaWAN gateways usually rely on Ethernet or Wi-Fi for internet access. These connections are suitable for offices, warehouses and factories, but they may not be available on livestock farms, open pastures, mines, construction sites, container yards and other remote locations.

A gateway with 4G LTE backhaul can connect to the server through a SIM card. This makes it possible to deploy a private or cloud-connected LoRaWAN network where fixed internet service is unavailable.

Shenzhen Jinshengchang Technology Co., Ltd. provides indoor, outdoor and solar-powered LoRaWAN gateways for livestock tracking, personnel safety, asset monitoring, smart agriculture and industrial IoT projects.

What Is a 4G LoRaWAN Gateway?

A 4G LoRaWAN gateway is a network device that creates a communication bridge between LoRaWAN end devices and an IP-based network server.

Compatible end devices may include:


  • LoRa GPS cattle collars

  • Sheep GPS trackers

  • Electronic employee badges

  • LoRaWAN SOS buttons

  • Temperature and humidity sensors

  • Smart water valves

  • Water and electricity meters

  • Motion sensors

  • Asset tracking devices

  • LoRaWAN beacons

  • Industrial monitoring sensors

These devices can collect location, temperature, humidity, movement, battery level, alarm status and equipment information.

The end devices transmit small data packets to the gateway over LoRaWAN. The gateway then forwards the packets to a network server through:


  • 4G LTE

  • Ethernet

  • Wi-Fi

  • Starlink or another IP connection

The gateway does not normally perform the complete tracking or monitoring application by itself. Device management, data processing, location display, alarm handling and report generation are completed by the network server and IoT platform.

Why Use a LoRaWAN Gateway with 4G?

Deploy a LoRaWAN network without fixed internet

Many farms, mines, construction areas and remote industrial sites do not have Ethernet or reliable Wi-Fi.

A 4G gateway usually requires:


  • Cellular network coverage

  • A compatible SIM card

  • A stable power source

  • An appropriate mounting location

  • A suitable LoRaWAN antenna

This allows an IoT network to be deployed without installing a new fixed internet connection.

Install the gateway closer to LoRaWAN devices

A cellular gateway does not need to remain inside a building with wired internet. It can be installed closer to sensors, trackers and other LoRaWAN terminals.

This installation flexibility is useful for:


  • Large cattle farms

  • Open sheep pastures

  • Construction sites

  • Mines and quarries

  • Remote pumping stations

  • Solar power plants

  • Container terminals

  • Temporary industrial projects

The final mounting position should be selected according to radio coverage, power availability, cellular signal and environmental conditions.

Use 4G as a backup connection

Where Ethernet is available, 4G can be configured as a backup backhaul connection.

If the wired network stops working, the gateway may switch to the cellular network and continue transmitting:


  • GPS positions

  • SOS alarms

  • Temperature readings

  • Device status

  • Battery information

  • Geofence alerts

  • Equipment fault notifications

The exact failover function depends on the gateway model and firmware configuration. It should be tested before deployment in a critical project.

Accelerate proof-of-concept testing

Installing new Ethernet cables during a pilot project can increase cost and delay testing.

A SIM-enabled LoRaWAN gateway helps integrators evaluate:


  • Actual LoRaWAN coverage

  • Cellular signal quality

  • Antenna placement

  • Device communication

  • Network traffic

  • Packet loss

  • Server connectivity

  • Platform integration

The results can then be used to determine how many gateways are required for the final deployment.

Indoor 4G LoRaWAN Gateway

Indoor gateways are designed for protected environments such as:


  • Factories

  • Warehouses

  • Offices

  • Hospitals

  • Schools

  • Shopping centers

  • Smart buildings

  • Indoor personnel tracking systems

  • Temperature-monitoring projects

The Milesight UG63 Mini Indoor LoRaWAN Gateway is a compact gateway for indoor IoT applications requiring LoRaWAN communication and flexible network backhaul.

An indoor gateway should be installed away from rain, excessive dust, direct sunlight and extreme temperature conditions.

Its position should also avoid large metal obstacles, enclosed metal cabinets and locations that severely weaken the LoRaWAN signal.

Outdoor 4G LoRaWAN Gateway

Outdoor gateways require stronger environmental protection than indoor models.

A professional outdoor LoRaWAN gateway may provide:


  • IP67 enclosure

  • 4G LTE backhaul

  • Ethernet

  • PoE power input

  • Wi-Fi configuration

  • Integrated or external antennas

  • Multiple LoRaWAN channels

  • Wall or pole mounting

  • Surge protection

  • Extended operating-temperature range

The Milesight UG67 Outdoor LoRaWAN Gateway is designed for outdoor deployments requiring 4G LTE, PoE and regional frequency options such as EU868 or US915.

Typical applications include:


  • Livestock farms

  • Smart agriculture

  • Outdoor factories

  • Logistics yards

  • Environmental monitoring

  • Utility infrastructure

  • Mining sites

  • Remote asset tracking

Outdoor performance depends on gateway height, antenna position, terrain, buildings, trees and radio interference. A theoretical maximum distance should not be treated as guaranteed coverage for every site.

Eight-Channel LoRaWAN Communication

An industrial gateway often uses an 8-channel LoRa concentrator. Multiple channels allow the gateway to receive packets from different LoRaWAN devices across supported frequencies and spreading factors.

An 8-channel LoRaWAN gateway can be used with:


  • Livestock GPS collars

  • Personnel safety badges

  • LoRaWAN SOS devices

  • Temperature sensors

  • Water meters

  • Smart valves

  • Asset trackers

  • Environmental sensors

  • Industrial controllers

The Milesight UG56 Industrial 8-Channel LoRaWAN Gateway provides 4G LTE, Wi-Fi and Ethernet connectivity for industrial and commercial IoT projects.

How Many Devices Can One Gateway Support?

The number of devices supported by a gateway cannot be determined only from a maximum device figure in a product specification.

Actual network capacity depends on:


  • Number of active devices

  • Data-upload interval

  • Packet size

  • Spreading factor

  • Signal quality

  • Channel utilization

  • Packet retransmissions

  • Confirmed or unconfirmed messages

  • Downlink frequency

  • Radio interference

For example, 2,000 sensors uploading once every few hours create much less network traffic than 2,000 GPS trackers transmitting every minute.

When calculating gateway capacity, the project should consider both the total number of devices and the communication behavior of each device.

LoRaWAN Frequency Bands

LoRaWAN uses different regional frequency plans. The gateway and end devices must operate on compatible frequencies.

Available gateway versions may include:


  • CN470

  • EU868

  • IN865

  • RU864

  • US915

  • AU915

  • KR920

  • AS923-1

  • AS923-2

  • AS923-3

  • AS923-4

EU868 is commonly used in European markets, while US915 is intended for the United States. AU915, AS923 and other configurations are used in different countries and regions.

A gateway intended for EU868 should not be purchased for a US915 project without confirming hardware and configuration compatibility.

The deployment country must be provided before ordering because the regional frequency affects:


  • Gateway configuration

  • RF parameters

  • Antenna selection

  • End-device compatibility

  • LoRaWAN channel plan

  • Regulatory compliance

4G LoRaWAN Gateway for Livestock Tracking

Livestock farms are a major application for cellular LoRaWAN gateways.

LoRa GPS livestock collars can collect and transmit:


  • Current animal location

  • Historical movement

  • Geofence status

  • Battery level

  • Collar-removal alarms

  • Activity information

  • Pasture-exit alerts

The collars use low-power LoRaWAN communication to send data to a gateway. The gateway then uploads the information to the lora8 platform or another server through 4G.

Compared with installing a cellular SIM card in every collar, a gateway-based network can reduce recurring communication costs when many animals remain within LoRaWAN coverage.

Before deploying a livestock tracking network, the project should evaluate:


  • Total pasture area

  • Hills and valleys

  • Trees and buildings

  • Gateway installation height

  • Number of animals

  • Collar reporting interval

  • Cellular signal strength

  • Power availability

  • Solar-power requirements

One gateway cannot automatically cover every farm. Large or topographically complex pastures may require several gateways.

A field test should be completed before confirming the final quantity.

Solar-Powered 4G LoRaWAN Gateway

Some pastures, environmental monitoring stations and remote industrial sites have neither fixed internet nor grid power.

An off-grid LoRaWAN gateway system may include:


  • Solar panel

  • Rechargeable battery

  • Solar charge controller

  • Outdoor LoRaWAN gateway

  • 4G cellular module

  • LoRaWAN and cellular antennas

  • Pole-mounting structure

  • Weather-resistant enclosure

The SG50 Solar LoRaWAN Gateway is intended for outdoor, 4G-connected and off-grid IoT applications.

Suitable projects include:


  • Smart agriculture

  • Remote livestock tracking

  • Water-system monitoring

  • Environmental sensing

  • Forest monitoring

  • Solar farms

  • Remote infrastructure

The solar system must be designed according to:


  • Local sunlight conditions

  • Seasonal weather

  • Gateway power consumption

  • Battery capacity

  • Solar-panel output

  • Required backup time

  • Installation angle

  • Cable and conversion losses

Connecting a small solar panel without performing a power calculation may cause the gateway to stop operating during cloudy weather or long winter nights.

Network-Server Compatibility

A professional gateway should support widely used LoRaWAN packet-forwarding and network-server options.

Depending on the gateway model, supported options may include:


  • Semtech UDP Packet Forwarder

  • LoRa Basics Station

  • ChirpStack

  • The Things Stack

  • Embedded network server

  • Milesight DeviceHub

  • Customer-hosted network server

  • Private cloud deployment

Before purchasing a gateway, the customer should confirm whether the project will connect to:


  • A public LoRaWAN network

  • A private LoRaWAN server

  • The customer’s IoT platform

  • The lora8 management platform

Private-server integration may require configuration of the server address, ports, gateway identifier, authentication credentials, certificates and packet-forwarding protocol.

Ethernet, Wi-Fi and 4G Failover

A multi-backhaul gateway can use several network connections.

A typical industrial configuration may use:


  • Ethernet as the primary connection

  • 4G LTE as the backup connection

  • Wi-Fi for local configuration

  • VPN for secure remote access

This arrangement can improve system availability when the fixed network is unreliable.

However, the exact failover logic should be confirmed for the selected gateway. Important projects should test:


  • Ethernet disconnection

  • Automatic 4G reconnection

  • Data transmission after failover

  • Gateway recovery

  • SIM-card behavior

  • Server reconnection

  • Alarm delivery

Testing these functions before mass deployment helps prevent communication interruptions after installation.

PoE LoRaWAN Gateway Installation

A PoE LoRaWAN gateway receives electrical power and network data through one Ethernet cable.

PoE can simplify installation when the best radio position is located on:


  • A rooftop

  • An exterior wall

  • A communications pole

  • A warehouse ceiling

  • A factory tower

  • A remote equipment cabinet

The installer should confirm:


  • Supported PoE standard

  • Maximum Ethernet cable length

  • PoE injector or switch compatibility

  • Outdoor cable rating

  • Grounding

  • Lightning protection

  • Waterproof cable entry

  • Power stability

For exposed outdoor sites, proper surge protection and grounding are important parts of the installation.

How to Choose the Right 4G LoRaWAN Gateway

The following information should be confirmed before selecting a gateway.

Installation environment

Determine whether the gateway will be installed indoors, outdoors, inside a cabinet, on a wall or on a pole.

Deployment country

The operating country determines the required regional frequency plan.

Backhaul connection

Confirm whether the project requires 4G, Ethernet, Wi-Fi, Starlink or automatic failover.

Number of devices

Calculate the total device quantity and the number of devices expected to transmit during the same period.

Reporting interval

A GPS tracker sending every minute creates more network traffic than a sensor reporting once per hour.

Coverage area

Provide a site map, terrain information, building layout and planned installation height.

Power supply

Confirm whether the location supports DC input, PoE, battery backup or solar power.

Server platform

Identify whether the gateway must connect to ChirpStack, The Things Stack, a private server or the lora8 platform.

Environmental requirements

Outdoor and industrial installations may require IP67 protection, lightning protection and a wider operating-temperature range.

OEM LoRaWAN Gateway and Complete IoT Integration

Jinshengchang can supply an individual gateway or help build a complete LoRaWAN system.

A complete project may include:


  • Indoor LoRaWAN gateways

  • Outdoor LoRaWAN gateways

  • Solar gateway systems

  • LoRaWAN GPS trackers

  • Livestock tracking collars

  • Personnel tracking badges

  • SOS alarm devices

  • Asset trackers

  • Temperature sensors

  • Smart valves

  • Network-server configuration

  • lora8 platform access

  • Android and iOS applications

  • API integration

  • Private server deployment

  • OEM branding and packaging

Gateway, end-device and platform compatibility can be tested before a large deployment.

Why Choose Jinshengchang?

Shenzhen Jinshengchang Technology Co., Ltd. has extensive experience in GPS tracking, LoRaWAN hardware and IoT platform development.

Our capabilities include:


  • Indoor and outdoor gateway supply

  • 4G, Ethernet and Wi-Fi connectivity

  • Global LoRaWAN frequency options

  • Solar-powered gateway solutions

  • LoRaWAN tracking terminals

  • Gateway and end-device compatibility testing

  • API and server integration

  • Private platform deployment

  • OEM and ODM services

  • Technical support for network planning

  • Device-to-platform IoT solutions

We can help customers select a standard gateway or plan an integrated system according to the site, device quantity, reporting requirements and server architecture.

Request a 4G LoRaWAN Gateway Quotation

To receive an appropriate gateway recommendation, please provide:


  • Deployment country

  • Indoor or outdoor installation

  • Required LoRaWAN frequency

  • Project application

  • Coverage area

  • Terrain or building information

  • Number of LoRaWAN devices

  • Device reporting interval

  • Required backhaul connection

  • Power-supply method

  • Network-server platform

  • Sample quantity

  • Expected order quantity

WhatsApp/Mobile: +86 13480881974
Additional contact: +86 17722420256
Email: 397017470@qq.com

A correctly selected 4G LoRaWAN gateway can provide reliable connectivity for livestock farms, factories, warehouses, smart buildings and remote IoT networks. The gateway should be selected according to regional frequency, installation environment, backhaul connection, device traffic, server compatibility and power availability—not only according to an advertised maximum communication distance.