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The 4G Router Store’s FAQ page provides comprehensive information about 4G and 5G technologies, covering a wide range of topics relevant to the UK market. It discusses emerging technologies like 5G RedCap, the benefits of investing in 5G routers even in 4G areas, and the rollout of 5G SA networks in the UK. The page also offers insights into creating private 5G networks and includes a detailed glossary of terms related to cellular technologies, IoT, and M2M communications. This resource is valuable for both consumers and businesses looking to understand the current state and future developments of mobile network technologies, particularly in the context of industrial and IoT applications.
5G RedCap, also known as 5G NR-Light, is a new technology standard introduced in 5G Release 17 to bridge the gap between high-performance 5G and low-power IoT technologies. It was developed to address the need for a more efficient and cost-effective solution for mid-range IoT applications that don’t require the full capabilities of 5G but need more performance than what 4G LTE or low-power wide-area (LPWA) technologies offer.
The development of 5G RedCap was driven by the recognition that many IoT devices and applications fall into a middle ground between high-end 5G use cases and low-power IoT scenarios. The minimum 5G requirements, such as 100 MHz bandwidth and 4 RX antennas, were not suitable for low-cost and battery-powered LPWA IoT applications. 5G RedCap was designed to power low-complexity LTE and NR devices with minimum hardware requirements, making it an ideal solution for this market segment.
5G RedCap is particularly relevant to several industries in the UK and globally:
5G RedCap is designed to be compatible with existing 5G network infrastructure. Telecom operators can support RedCap devices with a software upgrade to their existing networks, without the need for new hardware deployments. This makes it an attractive option for network operators looking to expand their IoT offerings without significant additional investment.
While 5G RedCap is primarily designed to work with 5G networks, it does offer a migration path for devices currently using 4G LTE. The technology is comparable to low-end LTE device categories such as Cat-2, Cat-3, or Cat-4 in terms of peak rates and complexity. This allows for a smoother transition from 4G to 5G for many IoT applications.5G RedCap devices can potentially replace existing 4G-powered LTE devices, especially in scenarios where the full capabilities of 5G are not required but improved performance over 4G is desired. This makes it an ideal stepping stone for the UK’s IoT ecosystem as it transitions from 4G to 5G technologies.
In conclusion, 5G RedCap represents a significant advancement in cellular IoT technology, offering a balanced solution for a wide range of applications in the UK and beyond. Its ability to provide enhanced connectivity without the full complexity of standard 5G positions it as a key driver in the growth of IoT sectors and the broader adoption of 5G technologies.
As a leader in IoT connectivity solutions, Teltonika have already started to add 5G redcap routers to their range with the RUT271 and RUT976 Redcap 5G routers so this technology will certainly shake up the applications for 5G Redcap connectivity.
Investing in a 5G router, even if you currently only have access to 4G in your area, can provide several advantages that may justify the purchase:
A 5G router is designed to work with both current 4G networks and future 5G networks. As 5G infrastructure expands, having a compatible router ensures you are ready to take advantage of faster speeds and lower latency when it becomes available in your area.
While you may only receive 4G speeds now, 5G routers are built to handle significantly higher data rates and lower latency. This means that when you do connect to a 5G network, your internet experience will be markedly improved.
Many 5G routers, such as the Teltonika RUTX50, support advanced 4G LTE categories like CAT20. This allows for carrier aggregation, enabling the router to combine multiple 4G frequency bands for faster speeds and improved performance, even on 4G networks. For example:
The RUTX50’s advanced 4G capabilities mean it can provide significantly better performance on existing 4G networks compared to older 4G routers.
5G routers support a greater number of simultaneous connections, making them ideal for households or offices with multiple devices needing internet access. This is particularly beneficial as smart home devices become more common.
Many 5G routers come with advanced technology that enhances signal strength and coverage, which can improve your current 4G experience. Features like external antennas may help capture stronger signals even in areas with poor coverage.
Depending on your internet usage and local service plans, using a 5G router could be more cost-effective than traditional broadband options. This is especially true in rural areas where wired connections are limited or expensive.
A 5G router can be beneficial for various applications, including remote work, streaming, gaming, and IoT devices. It is designed to handle the demands of modern internet usage, which often requires high bandwidth and low latency.In summary, while you may only have access to 4G currently, purchasing a 5G router like the Teltonika RUTX50 can provide significant long-term benefits. It prepares you for future connectivity improvements, enhances current performance through advanced 4G capabilities, and offers greater reliability and flexibility compared to older 4G routers like the RUT901.
5G SA represents the next evolution of mobile networks, offering significant improvements over both 4G and 5G Non-Standalone (NSA) technologies. In the UK, major operators like EE, Vodafone, and Virgin Media O2 are gradually rolling out 5G SA networks, with coverage expanding across major cities and urban areas.
Many newer smartphones support 5G SA, including:
Consumers can expect improved mobile broadband experiences, including:
5G SA enables businesses to leverage advanced connectivity for:
Industrial sectors stand to benefit significantly from 5G SA technology, particularly through the use of specialised 5G routers.
Industrial 5G routers are ruggedised devices designed to provide reliable, high-speed connectivity in challenging environments. Key features include:
These routers are designed to meet the demanding requirements of industrial IoT, offering features such as:
5G SA technology enables the creation of private networks for businesses and organisations. These offer:
Several UK industries are exploring private 5G networks, including manufacturing, ports, and universities.
While 5G SA offers significant advantages, there are challenges to consider:
As the UK continues to adopt 5G SA technology, we can expect to see more innovative applications across consumer, business, and industrial sectors. The development of specialised 5G routers and devices will play a crucial role in realising the full potential of this next-generation mobile technology, enabling new use cases and improving connectivity across various industries.
Creating your own 5G private network involves several key steps and considerations:
Select appropriate hardware from reputable manufacturers:Core Network:
Radio Access Network (RAN):
User Equipment:
Ensure your private 5G network complies with local regulations and obtain necessary licenses or permissions from regulatory bodies like Ofcom in the UK.By following these steps and working with experienced vendors and integrators, you can successfully create and deploy your own 5G private network tailored to your specific needs.
We have complied a glossary of terms in relation to LTE 4G, 5G, M2M and IoT including the most popular and some obscure terms.
Term | Acronym (if applicable) | Definition |
---|---|---|
2G | Second Generation | Early digital cellular networks designed primarily for voice calls and text messages. |
3G | Third Generation | Mobile networks that introduced mobile internet and video calling capabilities. |
3GPP | 3rd Generation Partnership Project | A collaboration between telecommunications standards organizations that develops protocols for mobile telecommunications. |
4G | Fourth Generation | Mobile networks offering faster mobile broadband internet for smartphones and other devices. |
5G | Fifth Generation | Latest cellular technology providing ultra-fast speeds, low latency, and massive device connectivity. |
5G Core | 5GC | The core network specifically designed for 5G systems. |
5G New Radio | 5G NR | The radio access technology standard for 5G networks. |
5G Non-Standalone | 5G NSA | 5G deployment that relies on existing 4G LTE infrastructure for core network functions. |
5G Standalone | 5G SA | Pure 5G network architecture that doesn’t rely on 4G LTE infrastructure, using a 5G core network. |
6LoWPAN | IPv6 over Low-Power Wireless Personal Area Networks | A networking technology that allows IPv6 packets to be sent over low-power wireless networks. |
802.11ah | Wi-Fi HaLow | Long-range, low-power Wi-Fi for IoT applications. |
Access and Mobility Management Function | AMF | A key component of the 5G core network responsible for handling connection and mobility management. |
Access Point Name | APN | The name of a gateway between a mobile network and another computer network, often the public Internet. |
Application Function | AF | Represents external applications that interact with the 5G core network. |
Authentication Key | Ki | A 128-bit value used in authenticating the SIMs on a GSM mobile network. |
Authentication Server Function | AUSF | 5G core component responsible for user authentication. |
Beamforming | – | Technique to focus wireless signals towards specific devices, improving efficiency and reducing interference. |
Bluetooth Low Energy | BLE | A power-efficient version of Bluetooth for IoT devices. |
Carrier Aggregation | CA | Technique to increase bandwidth and data rates by combining multiple carrier channels. |
Category M1 | Cat-M1 | Another term for LTE-M, a low-power wide-area (LPWA) technology designed to support IoT devices with low to medium data rate requirements. |
CDMA Subscriber Identity Module | CSIM | A SIM for CDMA phones. |
Cloud Radio Access Network | C-RAN | Centralized, cloud computing-based architecture for radio access networks. |
Constrained Application Protocol | CoAP | A specialized web transfer protocol for constrained nodes and networks in IoT. |
Control and User Plane Separation | CUPS | Architecture that separates control and user plane functions in the network. |
DASH7 | – | An open source RFID-standard based protocol for wireless sensor networking. |
Data-Only SIM | – | A SIM card that provides only mobile data services, without call or text capabilities. |
Device-to-Device Communication | D2D | Direct communication between devices without routing through a base station. |
Dual SIM | – | A feature in phones that allows the use of two SIM cards simultaneously, useful for separating personal and business lines or for travel. |
Dynamic Spectrum Sharing | DSS | Allows 4G and 5G to coexist in the same spectrum. |
Edge Computing | – | Bringing computation and data storage closer to the location where it’s needed to improve response times and save bandwidth. |
Embedded SIM | eSIM | A form of programmable SIM that is embedded directly into a device, allowing remote provisioning. |
Embedded Universal Integrated Circuit Card | eUICC | A software-based SIM that allows remote SIM provisioning and management. |
Enhanced Mobile Broadband | eMBB | 5G use case focusing on high-speed data for applications like 4K streaming and VR. |
E-UTRA NR Dual Connectivity | EN-DC | Feature allowing UEs to connect to both 4G LTE and 5G NR simultaneously in NSA mode. |
Evolved Packet Core | EPC | The core network for 4G LTE systems. |
Fair Usage Policy | – | Restrictions placed on “unlimited” data plans, especially when roaming, to prevent excessive use. |
Femtocell | – | Small, low-power cellular base station for residential or small business use. |
Fog Computing | – | Extending cloud computing to the edge of the network. |
Frequency Division Duplex | FDD | Method where uplink and downlink transmissions use different frequencies. |
Frequency Range 1 | FR1 | Sub-6 GHz frequency bands used in 5G (410 MHz to 7125 MHz). |
Frequency Range 2 | FR2 | mmWave frequency bands used in 5G (24.25 GHz to 52.6 GHz). |
Global SIM Card | – | A SIM card designed for international travelers, offering coverage in multiple countries, often with competitive rates. |
High-band 5G | – | Frequencies above 24 GHz (mmWave), offering extremely high speeds but limited coverage. |
Integrated Circuit Card Identifier | ICCID | The identifier of the actual SIM card itself – its serial number. |
Integrated SIM | iSIM | A SIM technology integrated directly into the device’s main processor or cellular modem chip. |
International Mobile Subscriber Identity | IMSI | A unique number associated with all GSM and UMTS network mobile phone users. |
Internet of Things | IoT | Network of interconnected devices that can collect and exchange data. |
IoT SIM Card | – | Specialized SIM cards designed for Internet of Things (IoT) devices, often with M2M (Machine-to-Machine) communication capabilities. |
IP Multimedia Services Identity Module | ISIM | An application running on a UICC smart card in a 3G phone. |
Key Local Reference | KLR | A key used in the SIM for local authentication. |
Local SIM Card | – | A SIM card purchased in the country you’re visiting, often offering better local rates than international roaming. |
Long Range Wide Area Network | LoRaWAN | An open protocol for long-range, low-power IoT communications. |
Long Term Evolution | LTE | A 4G technology designed to provide high-speed wireless communication for mobile devices. |
Long Term Evolution for Machines | LTE-M | A type of low power wide area network radio technology standard designed to support IoT through lower device complexity and extended coverage. |
Low-band 5G | – | Frequencies below 1 GHz, offering wide coverage but lower speeds. |
Low-Power Wide-Area Network | LPWAN | Network technologies designed for long-range communications at a low bit rate, optimized for IoT and M2M applications. |
Machine-to-Machine | M2M | Direct communication between devices using any communications channel, including wired and wireless. |
Massive Machine-Type Communications | mMTC | 5G use case enabling connectivity for a vast number of IoT devices. |
Massive Multiple-Input Multiple-Output | Massive MIMO | Advanced MIMO technology using a very large number of antennas to enhance 5G performance. |
Medium Access Control | MAC | Protocol layer in 5G NR managing scheduling and multiplexing. |
Message Queuing Telemetry Transport | MQTT | A lightweight messaging protocol for IoT. |
Metrocell | – | Small cell for high-capacity urban deployments. |
Microcell | – | Small cell for outdoor urban areas. |
Mid-band 5G | – | Frequencies between 1-6 GHz, balancing coverage and speed. |
Millimeter Wave | mmWave | High-frequency bands (24-100 GHz) used in 5G for extremely high data rates over short distances. |
Mobile Station International Subscriber Directory Number | MSISDN | The telephone number of the SIM card in a mobile/cellular phone. |
Mobile Virtual Network Operator | MVNO | A company that provides mobile phone services but doesn’t own its own network infrastructure. |
Modbus | – | A serial communication protocol widely used in industrial IoT applications. |
Multi-access Edge Computing | MEC | A network architecture concept that enables cloud computing capabilities at the edge of the cellular network. |
Multi-IMSI | – | A technology that allows a single SIM card to have multiple IMSIs, useful for reducing roaming costs. |
Multi-Network SIM Card | – | A SIM card that can connect to multiple carrier networks in a given country, automatically switching to the strongest signal. |
Multiple-Input Multiple-Output | MIMO | Technology using multiple antennas to improve wireless network performance. |
Narrowband Internet of Things | NB-IoT | A low power wide area network radio technology standard that focuses on indoor coverage, low cost, long battery life, and high connection density. |
Network Data Analytics Function | NWDAF | 5G core component that provides data analytics and insights about the network. |
Network Exposure Function | NEF | 5G core component that exposes network capabilities to external applications. |
Network Function | NF | Individual components within the 5G core network architecture. |
Network Function Virtualization | NFV | Technology that virtualizes network node functions into building blocks for communication services. |
Network Repository Function | NRF | 5G core component that maintains a repository of available network functions. |
Network Slice Selection Function | NSSF | 5G core component responsible for selecting the appropriate network slice for a UE. |
Network Slicing | – | Ability to create multiple virtual networks on a single physical infrastructure in 5G. |
New Radio Unlicensed | NR-U | Extension of 5G NR to operate in unlicensed spectrum. |
Next Generation NodeB | gNB | The 5G base station equivalent to the 4G eNodeB. |
Non-Orthogonal Multiple Access | NOMA | A technique that allows multiple users to share the same time and frequency resources. |
Non-Public Network | NPN | Private 5G networks for specific organizations or industrial applications. |
Non-Terrestrial Networks | NTN | Integration of satellite and airborne communication platforms into 5G networks. |
Open Radio Access Network | O-RAN | An industry initiative to make radio access networks more open and intelligent. |
Operator Code | OPC | A code used in SIM authentication algorithms. |
Orthogonal Frequency-Division Multiple Access | OFDMA | A multi-user version of OFDM used in 4G and 5G. |
Orthogonal Frequency-Division Multiplexing | OFDM | A method of encoding digital data on multiple carrier frequencies. |
Over-the-Air | OTA | Method of distributing new software, configuration settings, and even updating encryption keys to devices like cell phones. |
Packet Data Convergence Protocol | PDCP | Protocol layer in 5G NR responsible for header compression and security. |
Personal Identification Number | PIN | A numeric password used to authenticate a user to a system. |
Personal Unblocking Key | PUK | A code used to unlock a SIM card that has been blocked after too many incorrect PIN entries. |
Physical Layer | PHY | Lowest layer in 5G NR responsible for actual transmission and reception of radio signals. |
Picocell | – | Small cell for larger indoor areas like offices or shopping centers. |
Policy Control Function | PCF | 5G core component that manages policy rules in the network. |
Postpaid SIM Card | – | A SIM card associated with a contract, where usage is billed after the fact, typically monthly. |
Prepaid SIM Card | – | A SIM card with a pay-as-you-go model, where credit is purchased in advance of use. |
Quality of Service | QoS | Ability to provide different priorities to different applications, users, or data flows. |
Radio Access Network | RAN | The part of a mobile network that connects user devices to the core network. |
Radio Link Control | RLC | Protocol layer in 5G NR handling segmentation and retransmission. |
Roaming Partner | – | A foreign mobile network that has an agreement with your home network to provide service when you’re abroad. |
Roaming SIM Card | – | A SIM card that allows you to use your phone on different networks when traveling abroad, often with reduced rates compared to standard roaming. |
Self-Organizing Network | SON | Technology designed to make planning, configuration, management, and optimization of mobile networks simpler and faster. |
Service Communication Proxy | SCP | Component in 5G core that facilitates communication between network functions. |
Service Data Adaptation Protocol | SDAP | New protocol layer introduced in 5G for QoS management. |
Service-Based Architecture | SBA | Architecture style used in 5G core where network functions are modeled as services. |
Session Management Function | SMF | A 5G core network component that manages each UE session. |
Sigfox | – | A proprietary ultra-narrowband technology for IoT. |
SIM Locking | – | A restriction placed on a device by a mobile carrier that prevents it from being used with other carriers’ SIM cards. |
SIM Swapping | – | The process of transferring a mobile number from one SIM card to another, sometimes used fraudulently. |
SIM Toolkit | – | A standard of the GSM system that enables the SIM to initiate actions for various value-added services. |
SIM Unlocking | – | The process of removing the SIM lock from a device, allowing it to be used with any carrier’s SIM card. |
Small Cell | – | Low-powered radio access nodes that operate in licensed and unlicensed spectrum with a range of 10 meters to a few kilometers. |
Soft SIM | – | A software-based SIM that can be downloaded and installed on a device, similar to an eSIM. |
Software-Defined Networking | SDN | Approach to network management that enables dynamic, programmatically efficient network configuration. |
Steering of Roaming | – | The practice of directing roaming subscribers to preferred partner networks when abroad. |
Sub-6 Gigahertz | Sub-6 GHz | 5G frequency bands below 6 GHz, offering a balance of speed and coverage. |
Subscriber Identity Module | SIM | A small card that securely stores the international mobile subscriber identity (IMSI) and related key used to identify and authenticate subscribers on mobile devices. |
Synchronization Signal Block | SSB | Set of signals in 5G NR used for cell search and initial access. |
Thread | – | An IPv6-based mesh networking protocol for IoT. |
Time Division Duplex | TDD | Method where uplink and downlink transmissions share the same frequency but are separated in time. |
Time-Sensitive Networking | TSN | Set of standards enabling deterministic real-time communication over Ethernet. |
Travel SIM Card | – | A prepaid SIM card specifically designed for travelers, offering data, calls, and texts in multiple countries. |
UE Route Selection Policy | URSP | Mechanism in 5G for steering traffic to appropriate network slices. |
Ultra-Reliable Low-Latency Communication | URLLC | 5G use case for applications requiring extremely low latency and high reliability. |
Unified Data Management | UDM | 5G core component that stores and manages subscriber data. |
Universal Subscriber Identity Module | USIM | An application for UMTS mobile telephony running on a UICC smart card. |
User Equipment | UE | Any device used directly by an end-user to communicate on the network. |
User Plane Function | UPF | Handles user data traffic in the 5G core network. |
Voice over LTE | VoLTE | Technology for delivering voice calls over 4G LTE networks. |
Voice over New Radio | VoNR | Technology for delivering voice calls over 5G networks. |
Zigbee | – | A low-power, short-range wireless standard for IoT. |
4G Plus, also known as 4G+ or LTE-Advanced, is an enhanced version of standard 4G technology available in the UK. This improved mobile broadband service offers significantly faster data speeds and improved network capacity, making it particularly beneficial for businesses, Machine-to-Machine (M2M) applications, and Internet of Things (IoT) devices.
Carrier Aggregation
The primary technology behind 4G Plus is carrier aggregation. This technique allows devices to simultaneously access multiple frequency bands of the 4G spectrum, effectively combining them to increase bandwidth and boost data speeds. In the UK, this can result in download speeds of up to 300 Mbps, a substantial improvement over standard 4G.
Improved Network Capacity4G Plus not only offers faster speeds but also enhances overall network capacity. This is particularly advantageous in densely populated areas or during peak usage times, ensuring more consistent performance for business-critical applications.
Both 4G and 5G mobile broadband routers are available in the UK, catering to different needs and coverage areas.
4G Routers
4G routers are widely available and offer good coverage across most of the UK. For businesses looking to leverage 4G Plus technology, it’s essential to choose a router with the right modem category:
5G Routers
5G routers provide even faster speeds and lower latency than 4G Plus, making them ideal for high-demand business applications. However, 5G coverage is currently limited to major urban areas in the UK but using a 5G router that supports CAT18/ CAT19 or CAT20 4G LTE can provide high speed 4G+ with carrier aggregation.
4G Plus and advanced mobile broadband routers offer significant benefits for businesses and IoT deployments:
Remote Working
High-speed, reliable connections enable seamless remote working, supporting video conferencing, cloud-based applications, and large file transfers.
M2M Communication
4G Plus provides the bandwidth and reliability needed for complex M2M systems, such as industrial automation or smart city infrastructure.
IoT Deployments
The improved network capacity of 4G Plus supports large-scale IoT deployments, enabling businesses to connect and manage numerous devices efficiently.
Temporary Connectivity
Mobile broadband routers offer quick and flexible connectivity solutions for pop-up locations, construction sites, or temporary offices.
Failover Solutions
4G Plus routers can serve as reliable backup connections for businesses, ensuring continuity in case of fixed-line outages.
As 4G Plus continues to expand across the UK, businesses and IoT developers can leverage this technology to enhance their connectivity, improve operational efficiency, and support innovative applications.
When selecting a mobile broadband solution, it’s crucial to consider the specific requirements of your use case, the available coverage in your area, and the capabilities of the router to ensure you can fully benefit from 4G Plus technology.
For optimal performance, the maximum recommended cable lengths for 4G and 5G antennas are:
These recommendations are general guidelines and can vary based on cable type, signal strength at the antenna installation location compared to the router installation site, and the specific frequencies used. In areas with strong signal reception, longer cable runs may be possible, while weaker signal areas may require shorter cables to maintain performance.
4G bands:
5G bands:
Signal loss increases with cable length and frequency. For example:
For 5G frequencies (e.g., 3.5 GHz), losses are even higher:
To minimize signal loss, use high-quality, low-loss cables such as LMR400 or better for longer runs, especially with 5G installations.
When selecting antennas, consider:
When cable runs exceed the recommended lengths, consider these alternatives:
TYhese outdoor LTE 4G / 5G Routers are powered using POE with a single Ethernet Connection: This means you can use se a long Ethernet cable from the outdoor router to the indoor location (up to 100 meters without signal degradation)
Benefits of this approach:
5G signals, especially in higher frequency bands, face greater challenges with building penetration:
Modern, energy-efficient buildings with metallized glass and reinforced concrete pose significant challenges for signal penetration. For example, a thermally-efficient building may cause 50 times more signal loss at 800 MHz and 240 times more at 39 GHz compared to traditional buildings.
By carefully considering these factors and choosing the appropriate antenna setup or alternative solutions, businesses and IoT deployments can optimize their 4G and 5G connectivity, even in challenging environments with poor indoor signal reception or the need for long cable runs.
Always aim to keep cable lengths as short as possible while balancing practical installation considerations and signal strength requirements.
Cellular networks offer wide coverage, reliability, security, and the ability to handle large numbers of connected devices, making them ideal for IoT and M2M applications.
Cellular IoT solutions enable real-time data transmission, remote device configuration, and over-the-air updates, enhancing remote management efficiency.
Industries such as agriculture, manufacturing, logistics, healthcare, and smart cities can greatly benefit from cellular IoT connectivity for various applications.
Cellular networks provide real-time location data and vehicle diagnostics, improving route optimization, maintenance scheduling, and overall fleet efficiency.
Cellular networks offer built-in security features like encryption, authentication, and isolated network slices, ensuring data protection for IoT devices.
Businesses can use multi-carrier SIM cards, external antennas, or consider the use of outdoor 4G and 5G routers to improve connectivity in challenging areas.
Costs include hardware (devices and routers), data plans, platform fees, and potential integration expenses. However, the benefits often outweigh the costs for many applications.
By continuously monitoring equipment performance and transmitting data in real-time, cellular IoT enables early detection of potential issues, reducing downtime and maintenance costs.
Yes, many cellular IoT platforms offer APIs and other integration tools to connect with existing business systems like ERP, CRM, or custom applications.
Cellular networks are highly scalable, capable of supporting thousands of devices across wide geographical areas, making them suitable for businesses of all sizes and growth stages.
If you need help or advice in deciding on the best hardware and IoT SIM card connectivity solution for your particular application then you may want to visit our solutions page where we have information about applications such as CCTV, BMS or agriculture with examples of hardware and SIM solutions or just give our knowledgeable sales team a call.
At the 4G Router store we stock industrial grade mobile broadband IoT and M2M 4G and 5G routers and eSIM Routers from leading manufacturers along with 4G & 5G antennas and Fixed IP SIM cards, Roaming SIM Cards and Multi-Network SIM cards and eSIM services.
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