Top 10: 5G Innovations

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Mobile Magazine looks at some of the leading 5G innovations
Mobile Magazine explores some of the leading 5G innovations to dominate the market in 2024, enhancing global connectivity and improving customer experience

The rollout of 5G has intensified in 2024, with the global appetite for rapid and dependable wireless connectivity having intensified. This has inevitably led the wider technology sector towards new innovations and connectivity solutions.

According to GSMA Intelligence, by the end of 2024, more than 60% of global telecom operators will have deployed standalone 5G networks, as demand grows for specialised services such as smart cities, industrial IoT and low-latency applications.

With our Cloud & 5G LIVE event taking place in February 2025, we are eager to share the latest information and innovations that are being adopted by industry leaders in order to stay ahead of the global 5G technology race.

To get your free ticket, click HERE.

With this in mind, Mobile Magazine showcases some of the leading 5G innovations taking the connectivity world by storm in 2024.

10. Dynamic Spectrum Sharing (DSS)

Image credit: NYBSYS

Dynamic Spectrum Sharing (DSS) is a cutting-edge technology that enables the simultaneous use of 4G and 5G networks within the same frequency band. This allows mobile operators to dynamically allocate spectrum resources based on real-time demand, facilitating a seamless transition from 4G to 5G without the need for extensive infrastructure upgrades. 

DSS also uses software-defined radio technology to adjust spectrum allocation without hardware changes, which leads to enhanced network efficiency and reduced costs. By supporting both technologies on a single antenna, DSS accelerates 5G deployment and improves overall network performance, benefiting both operators and users.

9. Carrier Aggregation

Image credit: 3GPP

Carrier Aggregation (CA) is a cutting-edge technology that is currently revolutionising mobile networks. It works by allowing devices to simultaneously connect to multiple LTE carriers, dramatically boosting data speeds and capacity. 

By combining frequency blocks, or component carriers, CA enables more efficient spectrum utilisation and improved network performance. This technique is crucial in LTE-Advanced and 5G networks, supporting peak data rates of up to 2 Gbps when combined with other advanced features. 

CA comes in three forms, each offering unique benefits for network operators:
  • Intra-band contiguous
  • Intra-band non-contiguous
  • Inter-band

As mobile data demands soar, CA is becoming increasingly critical for delivering superior user experiences and meeting the growing appetite for high-speed connectivity.

8. Enhanced Mobile Broadband (eMBB)

Image credit: NYBSYS

Enhanced Mobile Broadband (eMBB) promises to deliver significantly higher data rates, improved bandwidth and reduced latency compared to 4G networks. Designed to support data-intensive applications such as high-definition video streaming, augmented reality and virtual reality on mobile devices, eMBB could enable seamless connectivity in crowded areas and moving vehicles. 

This technology is expected to transform various sectors, including entertainment, healthcare, real-time gaming and smart cities by providing a more robust and responsive mobile experience. As 5G networks continue to expand, eMBB is set to redefine our digital interactions.

7. Massive Machine-Type Communications (mMTC)

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Massive Machine-Type Communications (mMTC) is a pivotal component of 5G networks designed to connect a vast number of low-power devices, such as IoT sensors, which generate small data packets. 

This technology supports up to one million devices per square kilometre, significantly surpassing 4G LTE capabilities. It can be crucial for applications in smart cities, industrial IoT, agriculture and healthcare, enabling efficient and long-lasting operations with minimal human intervention. 

Implementing mMTC also involves network slicing, which allows tailored connectivity solutions to meet specific needs while ensuring energy efficiency and scalability.

6. Phased Array Antennas

Image credit: Analog Devices

Phased array antennas are working to revolutionise wireless communication and radar technology. These sophisticated systems comprise multiple antenna elements working in concert to create a highly directional beam without physical movement. By manipulating the phase of signals emitted from each element, the array can electronically steer the beam, offering unprecedented flexibility and speed. 

This technology is also able to enable beamforming, thereby enhancing signal strength and range whilst reducing interference. Phased arrays are particularly valuable in high-frequency applications such as 5G networks, military radar and satellite communications. Their ability to track multiple targets simultaneously and adapt to changing conditions makes them indispensable in modern telecommunications and defence sectors.

5. Ultra-Reliable Low Latency Communications (URLLC)

Image credit: NYBSYS

Ultra-Reliable Low Latency Communications (URLLC) is a key feature of 5G technology that enables critical applications across various sectors, including healthcare, autonomous vehicles and industrial automation. URLLC's potential use cases range from remote surgery and real-time patient monitoring to advanced robotics and smart grid management. 

It relies on innovations like network slicing and multi-access edge computing to minimise latency in mobile networks. 

As URLLC continues to evolve, it is set to revolutionise multiple industries, paving the way for the realisation of concepts such as tactile internet and bolstering experiences like augmented reality in the coming years.

4. 5G Standalone Infrastructure

Image credit: STL Partners

5G Standalone (SA 5G) infrastructure marks a significant leap in mobile network technology, offering a fully independent infrastructure designed exclusively for 5G services. 

Unlike its non-standalone counterpart, SA 5G utilises a new 5G packet core network, eliminating reliance on existing 4G LTE systems. This cloud-native architecture enables unprecedented flexibility, scalability, and efficiency. 

SA 5G promises lower latency, higher speeds and improved reliability. Major carriers are gradually transitioning to this technology, which is expected to unlock new IoT applications and revolutionise sectors such as autonomous vehicles and industrial automation. As SA 5G matures, it's poised to deliver the full potential of 5G technology.

See how EE has recently rolled out its 5G Standalone upgrade in the UK HERE.

3. Beamforming

Image: STL Tech

Beamforming is a cutting-edge radio frequency technique that focuses signals towards specific receiving devices, rather than broadcasting indiscriminately. By employing an array of sensors and antennas, beamforming optimises interference and enhances signal quality, which results in faster and more reliable data transmission. 

Widely used in 5G, LTE and WLAN systems, it's also crucial in radar, sonar and medical imaging. 

Beamforming techniques fall into two categories: conventional (fixed) and adaptive, with the latter adjusting to the signal environment for optimal performance. As wireless technology advances, beamforming continues to play a pivotal role in improving connectivity and data speeds across various applications.

2. Network Slicing

Image credit: STL Partners

Network slicing allows multiple networks to exist on the same physical network. Each network uses a different ‘slice’ of the same spectrum band and aims to provide greater flexibility. The technology is also vital for 5G networks to support a diverse range of applications that have different performance requirements. This allows for more efficient resource allocation and scaling.

For telco service providers, network slicing provides the ability to divide and scale the network on an as-a-service and 'on-demand' basis. This requires an advanced, software-defined infrastructure that allows multiple virtual networks to be created on top of shared physical infrastructure.

1. Open RAN

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Open RAN is an industry movement embracing open interfaces and virtualised radio access network (RAN) solutions, breaking from the proprietary, integrated RAN systems that have traditionally dominated mobile networks.

With Open RAN, mobile operators can mix and match RAN software and hardware components from different vendors using open interfaces. This enables greater supplier diversity and flexibility compared to closed, vertically integrated RAN offerings.

A key enabling technology for Open RAN is virtualized RAN (vRAN), which shifts baseband processing from dedicated hardware appliances to software running on commercial off-the-shelf servers.

Find out more about the technology HERE.


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