Jim Forster

The #microwave industry has reached a consensus on the evolution direction of 5G/5.5G to ultra-broadband, simplified, multi-channel, is fully prepared for the new era Because #microwave #transmission is such a widely adopted technology, each evolutionary advance of the broader industry tends to spur further innovations in microwave in particular The needs of #5G & 5.5G spurred the development of wider, smarter microwave pipes; increasing scarcity of spectrum resources drove more spectral efficiency gains with microwave; the digital transformation of enterprises was met with new microwave solutions tailored to their needs; carriers' commitments to provide universal coverage prompted efforts to bring down the #TCO of microwave technology; with the emergence of new applications like ultra-broadband, multi-channel microwave, ultra-long-haul transmission, microwave again rose to the occasion with new #innovations in planning & delivery The larger bandwidth of 5G and 5.5G puts increasing the capacity of microwave backhaul high on the agenda. Demand for backhaul capacity could soon be tens of times higher than what it is now. Among all the microwave spectrum options, E-band is considered the sweet spot for 5G and 5.5G deployments, hence the importance of fully exploring its potential capacity. The increasing #density of microwave networks & paucity of #spectrum #resources necessitates the improvement of spectral efficiency In the current climate of global economic recovery, industry digital transformation is catalyzing a myriad of industrial applications of microwave transmission, such as in offshore wind power, disaster relief, power transmission. Microwave plays an important role in connecting industries & bringing network access to every part of society Universal coverage requirements imposed on carriers have driven innovation in the microwave transmission space. Those innovations are bringing down TCO through flexible modular design of products & solutions, lean deployments, simplified O&M. Long-haul microwave leverages new technologies such as high-gain beamforming (#HGBF) to bring down TCO The communications industry has evolved from Plesiochronous Digital Hierarchy (#PDH), Synchronous Digital Hierarchy (#SDH), Asynchronous Transfer Mode (#ATM) to Internet Protocol (#IP), & #mobile #backhaul has likewise been changing from carrying only voice and data traffic to supporting the mobile Internet. In this process, ultra-broadband microwave has led to the emergence of new KPIs for future microwave planning The mass deployment of networks and introduction of new technologies such as multi-channel microwave & long-haul transmission inevitably result in complexities & challenges in planning, installation, O&M, optimization, but have also spurred the industry to develop new solutions for efficient microwave deployment & O&M Follow us on Kaneshwaran Govindasamy & Global 5G Evolution click comment box. #subscribe our #youtube channel #Huawei Huawei

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The #lack of #progress in #standalone #5G #deployments highlighted in the GSA May 2024 Market Snapshot Report is a point worth noting. Stalled #Standalone 5G -The report indicates that the number of operators with deployed standalone 5G networks hasn't increased since the end of 2023 (at 49). This suggests a #slowdown in the #rollout of the next-generation 5G technology. Expectations vs. Reality- Standalone 5G promises significant #improvements in network #performance, #efficiency, and #flexibility. The lack of progress could be due to various factors like technical challenges, regulatory hurdles, investment considerations, infrastructure limitations, or delays in developing applications that fully utilize standalone 5G capabilities. Additionally, the transition to standalone 5G networks requires substantial infrastructure upgrades and investments, which can be both costly and time-consuming for operators. Some operators might be in the process of deploying standalone 5G networks that haven't been publicly announced yet. What are your thoughts? 🤔🧐 Follow us on Kaneshwaran Govindasamy & Global 5G Evolution Click comment box. #subscribe our #youtube channel #5g #sa #nsa #telecom #connectivity #csp #mno #telco #telcos #SA #NSA

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New Research Report from O-RAN ALLIANCE nGRG RS01 stream was out recently. Its related to usecases and gap analysis of mmWave Antenna Distribution (mWAD). Happy to contribute in this research report. Its freely available at O-RAN Alliance website. https://lnkd.in/gppAQQqN >> In 6G networks it is expected the convergence of the physical and cyber worlds will accelerate, enabling the sharing of various experiences without the constraints of location. To realize this, an even greater data rate and lower latency communication will be required. For instance, the data rates needed for replicating real objects in virtual spaces for live sports, live music, or the metaverse demand 14-230 Gbps per object for uplink, while on the viewing side, 48-200 Gbps for downlink is necessary. These requirements exceed the capabilities of 5G. This report demonstrates how mWAD can contribute to realizing such a future and clearly identifies its challenges. Furthermore, it discusses the challenges associated with mWAD, introducing potential technologies and initiatives that could serve as solutions >> Jio

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Check out the latest advancements on 6G radio design and innovation on topics including AI-driven air interface design, advanced MIMO transmissions, joint communication and sensing, integrated terrestrial and non-terrestrial networks, and a lot more from Hexa-X-II! https://lnkd.in/ddaSZXuM #SNSJU #6G #AI

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The US government continues to support the development of the Open RAN ecosystem as it seeks to widen vendor choice for operators networks. The $420 million in new funding announced by the Commerce Department's National Telecommunications and Information Administration (NTIA) is a significant boost for the development of open radio units. This initiative has two key aims: ▪ Commercialisation: Accelerating readiness for commercial trials to prove the technology's viability for wider deployment. This has been a long held reservation on the new technology. Many operators we speak with have concerns about wide level commercial deployments in existing infrastructure. ▪ Innovation: Supporting R&D efforts in Open RAN performance and capabilities to drive the technology forward. The investment is a clear signal that the US remains committed to fostering a competitive, diversified telecoms equipment market. It should open up opportunities for US-based Open RAN vendors and could create a more innovation-friendly environment following a difficult few months with some of the larger names in the sector #OpenRAN #telecomsequipment #NTIA #innovation #USinvestment

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I’ve written another piece on US #spectrum policy & #mobile bands - and what should be done in preparation for #WRC27 over the next 3 years. This is part of my ongoing focus on global spectrum-sharing policy, as well as my advisory work with SFTF. This time it has been published via Fierce Network. My view is that the US should directly engage with the International Telecommunication Union (ITU) process at multiple levels, to push for greater understanding and technological innovation in sharing approaches. In particular the focus of IMT (ie #5G & #6G) spectrum should be on regulators assuming a “sharing-native” future in the 2030s, instead of the historic focus of assigning exclusive licences. This should be reflected in any figure IMT identifications & footnotes. In addition, it should be a core part of the various study groups and working parties’ efforts. There also needs to be far more realism about mobile traffic on the international stage - its flattening growth, the many non-credible forecasts, its localisation to specific areas & the impact of aspects such as FWA and indoor use. A critical aspect is dealing with the proposed IMT study bands for WRC-27, which seem “coincidentally” to be exactly the same as those used within NATO for military communications. At the moment, the US #CBRS band is one of the leading examples of dynamic spectrum sharing in practice. The work by NTIA & NSF is also advancing the technological base, including the role of AI. It should be advocating this work more globally, especially at ITU. But first, the mainstream US mobile industry needs to get onboard. #spectrumpolicy #telecompolicy #technology #regulation

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Download the report on CPaaS API vs Network APIs     This report, written by Dean Bubley at Disruptive Analysis, clears the industry's confusion about CPaaS APIs vs. #NetworkAPIs and explains their roles in unleashing programmable network capabilities.

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I've written a report on the differences and synergies between 5G Network APIs and #CPaaS, on behalf of a new client, Shabodi. The theme is "Co-existence not Convergence". The download link is in the comments. The two worlds coexist, but there is limited overlap. Both sets of APIs are valuable for CSPs and other providers. But I think that with some exceptions, they are suitable for *different* groups of developers, in different situations. (Note: I'm one of few analysts who has covered both wireless networks and CPaaS). Several previous posts covered the evolution of Network APIs, especially for #5G networks. I've been watching ongoing work relating to #CAMARA and #OpenGateway initiatives - my general stance has been that they are "necessary but not sufficient", particularly for public MNO networks. I've also been skeptical of some of the quantitative forecasting of revenues, especially for quality-on-demand and #networkslicing. A key challenge I've identified is that APIs for quality are only useful in locations with sufficient, reliable network coverage and capacity - and public 5G SA networks are very patchy, especially indoors. It's been noticeable that more discussion has been about using APIs to *create* #Private5G slices from national networks, than using APIs *inside* dedicated P5G networks for industry or other use-cases. I think the latter are more important. IMO that's the immediate opportunity for fine-grained network awareness and control: specific locations where networks have been tightly engineered for relevant applications. Factories, mines, sports venues, ports, hospitals etc. Those are not the places or applications most in need of VoIP calling or SMS messaging APIs. Most CPaaS users and platforms are completely distinct to those for (wireless) network capabilities and awareness. They focus on contact centres, customer experience, messaging, or building voice/video applications with protocols like #WebRTC and SIP. Some CPaaS providers also offer APIs for email and marketing campaign management. At the moment, the main current emphasis from 5G Network API platforms appears to be on aspects such as fraud management, numbering and SIM-swaps, location and so forth. These are more plausibly "CPaaS adjacent" although developers have lots of other choices for those as well. I've long said network-aware applications are more important than application-aware networks. So APIs which give network status data to developers, and also allow them to specify requirements such as necessary latency and bandwidth, are potentially useful - as long as they apply to the right network(s). In summary - while there are some overlaps between CPaaS and Network APIs for abstraction and enablement, they fundamentally have very different characteristics. They may coexist on broader API/XaaS platforms and aggregated marketplaces, but that will be “complementary”, not “converged”. Download the report from the link & let me know what you think.

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Next Generation Networks - How do you envision the role of AI in shaping the evolution of future generation networks like #6G? What are the key technological advancement s that will be driven by AI? 🧿The era of wireless AI for 5G began in R16 with the introduction of the NWDAF as a part of the core network’s enablers for network automation 🧿R16 introduced RAN-centric data collection & utilization including the MDT & SON procedures, & the management & orchestration architecture to support analytics in the RAN 🧿R17 introduced new features that further augmented ML capability in the 5G RAN. 🧿R18 began the study of how to further include the device by focusing on evaluating AI models & frameworks that can be seamlessly integrated into end-to-end wireless systems ------------------------------------------------------------------------------------ Key Technological Advancements Driven by AI 🧊Intelligent Network Optimization 💎Dynamic resource allocation: AI can analyze real-time network conditions to allocate resources optimally, ensuring maximum performance for various applications. 💎Self-healing networks: AI can detect & diagnose network faults, initiating automated repairs to minimize downtime. 🧊Enhanced User Experience 💎Personalized network settings: AI can tailor network parameters to individual user preferences & behaviors, providing a customized experience 💎Intelligent traffic offloading: AI can intelligently route traffic to less congested paths, reducing latency & improving overall network performance 🧊Advanced Network Security 💎Threat detection & prevention: AI can analyze network traffic patterns to identify potential security threats & proactively implement countermeasures 💎Secure authentication: AI-powered authentication mechanisms can enhance network security by detecting & preventing unauthorized access 🧊Innovative Applications 💎Immersive experiences: AI will enable new immersive applications like AR & VR by providing the necessary bandwidth & low latency 💎IoT optimization: AI can optimize IoT networks by managing device connectivity, data processing, security ------------------------------------------------------------------------------------ Qualcomm's 6G Foundry: Adaptive Intelligence in 6G Qualcomm's 6G Foundry initiative highlights the importance of adaptive intelligence in 6G networks. This involves integrating AI capabilities into the network infrastructure to enable: 💙Dynamic spectrum allocation: AI can efficiently allocate spectrum resources based on real-time demand & network conditions 💙Intelligent beamforming: AI can optimize beamforming techniques to improve signal quality & coverage 💙Self-organizing networks: AI can automate network configuration & management tasks, reducing operational costs & improving reliability In conclusion, AI will be a cornerstone of 6G networks, enabling a new era of #intelligent, #efficient, and #personalized connectivity. Global 5G Evolution

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I think #6G will need a complete rework of the idea of localised roaming and network interconnect. There will be multiple scenarios and greater frequency of devices switching to alternative networks from an MNO, or connecting to other users locally. This fits the #6Greset concept. There are two sets of scenarios, with some overlap: 1) User switches to (or combines) a local network, for improvements in coverage, performance, cost, energy use or privacy 2) User connects to another user or resource locally "at the edge" without traffic going via a distant point. This improves latency, congestion, coverage etc as well. Some use-cases and scenarios: - Local roaming & federation onto indoor #WiFi for better coverage, lower energy consumption and (often) reduced latency to cloud-based applications - Local interconnect with 3rd party networks such as #neutralhost for urban densification, remote / rural and indoors - Both roaming and local interconnect between public and private #5G / 6G networks at a site - for instance for IoT devices moving outdoors from indoors - Local breakout or local interconnect between two different MNO networks, for instance for low-latency communications or gaming between two users at the same venue - Direct device-to-device (or "sidelink") connectivity, for instance for sending files and images/video locally in a similar fashion to AirDrop or casting to a TV. Also for public safety and #V2X at longer ranges - Direct peering (and perhaps radio coordination) between Wi-Fi networks, or between #private5G networks - either locally or as federations - Extending a device's Wi-Fi hotspot capability to offering a 5G / 6G local hotspot in unlicensed spectrum - Localised use of satellite or HAPs connections in particular regions (eg small dead zones) - Various proximity-sensing and positioning use-cases - Alternative local technologies such as Bluetooth, UWB, light - even USB cables - Links to #edgecomputing, #NetworkAPIs and AI A lot of different things will get blended into each other here. Arguably this is actually multiple categories, with a plethora of standards involved. But what I'm seeing is a "superset" of localised network events. There's no real parallel in #5G. That has lots of architectural and regulatory implications. Are any of these things billable? Does lawful intercept apply, and if so where and how? Is the 3GPP core involved, and if so, for control or user planes, or both? What about shared #OpenRAN CU & DUs? What happens if there's a conflict between (say) energy efficiency and privacy, or coverage vs. regulatory control? How much is driven by device or OS connection managers, vs the network(s)? Will there be huge volumes of signalling? This is outside traditional #mobile & IMT / #5G thinking. Some 6G visions talk about Network of Networks - this is what it implies, I believe. ⏰ This will be covered at my Nov 28th "6G For The Real World" workshop Early Bird ends this week - see Eventbrite link in comments⏰

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Reflections on a major shift in the industry affecting at least a third of rural telecom infrastructure We all know the story of Icarus and Daedalus. Icarus ignored the advice of his father, Daedalus, not to fly too close to the sun. But this never stops us challenging the limits. Sometimes it just takes more than beeswax to keep the plane in the air. Large financial resources are always useful to push a venture forward. But sometimes grit, determination, a sense of common purpose and a good corporate culture is more sustaining. read more here : https://lnkd.in/gyWm6rJu

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𝟓𝐆 𝐒𝐞��𝐯𝐢𝐜𝐞 𝐕𝐞𝐫𝐭𝐢𝐜𝐚𝐥𝐬 - 𝐼𝑡'𝑠 𝑡𝑖𝑚𝑒 𝑡𝑜 𝑚𝑜𝑣𝑒 𝑜𝑛 𝑓𝑟𝑜𝑚 𝑎 𝑇𝑟𝑖𝑎𝑛𝑔𝑙𝑒 𝑡𝑜 𝑃𝑒𝑛𝑡𝑎𝑔𝑜𝑛. In addition to three service verticals (eMBB, uRLLC, mMTC) in the early 5G Network, two more service verticals (or Network Slices in the right context) are added in later releases- 𝑽2𝑿- "Vehicle-to-everything (V2X)" was introduced in R16 and it denotes the seamless exchange of data among various transportation elements and traffic-related sensors, characterized by high bandwidth, low latency, and utmost reliability. The forthcoming 5G mobile networks will play a pivotal role in furnishing connectivity for both vehicle-to-vehicle (V2V) and vehicle-to-infrastructure (V2I) communications. 𝑯𝑴𝑻𝑪 - HMTC, or High-Performance Machine Type Communication, was introduced in R17 and it represents a category of 5G networks enabling efficient communication between machines and the network. Within the framework of 5G, networks are engineered to accommodate diverse needs, such as machine-type communications, throughput, latency, availability, and high-performance communications. Did you know about it or still stuck with the first 3? Do let me know in the comments. For more content like this, Please follow Sanjay Kumar ↗️ and TelcoLearn #5g #embb #urllc #mmtc #hmtc #v2x

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Introducing O-RAN Y1 Near Real-Time RIC open interface The Y1, O-RAN ALLIANCE's new open interface, introduces a dynamic pathway for enhanced communication and analytics between the near-real-time RAN Intelligent Controller (near-RT RIC) and both internal and external systems. This interface is not just a technical addition; it’s a strategic enabler that broadens the scope of O-RAN capabilities towards more adaptive, intelligent, and integrated network operations. ◼ Y1 Open Interface The Y1 interface in the O-RAN architecture facilitates the sharing of Radio Analytics Information (RAI) from the near-RT RIC to various authorized consumers. These consumers can range from internal components like non-RT RICs and SMO, to external third-party applications. The fundamental role of the Y1 interface is to allow for the subscription and consumption of RAN analytics data, which are vital for enhancing network performance and user experiences. This interface supports robust mutual authentication and authorization protocols, ensuring that only authorized entities can access the sensitive and critical data being transmitted. The Y1 interface is designed to be flexible, supporting consumers both within the PLMN trusted domain, such as NWDAF and multi-RAT dynamic spectrum sharing applications, and outside it through a secure exposure function. ◼ Key Benefits of Y1 - Enhanced Network Intelligence and Optimization The Y1 interface enables the near-RT RIC to transmit vital RAN insights such as QoE and other operational metrics to different network components. This transmission of data supports more informed decision-making processes and facilitates network adjustments in real-time, optimizing both network performance and resource allocation. - Expanded Ecosystem and Multi-Vendor Interoperability By standardizing the way that RAN analytics are shared, the Y1 interface encourages a broader ecosystem of applications and services to integrate seamlessly with O-RAN networks. - Scalability and Flexibility The Y1 interface is designed to be scalable, handling varying levels of data traffic and accommodating growing network demands without degradation in performance. This scalability ensures that as networks evolve and expand, the Y1 interface can continue to provide critical data efficiently and reliably. ◼ V2X: An Use Case of Y1 V2X encompasses various communication modes, all of which require highly reliable and real-time data exchange. In emergency scenarios, timely and accurate data transmission is crucial. The Y1 interface supports the delivery of critical information from sensors, enhancing situational awareness and aiding in quicker, more effective response efforts. The ongoing development and adoption of the Y1 interface will be a critical area of focus as O-RAN transitions towards being more open and intelligent. Architecture Diagram credit: Rimedo Labs #ORAN #OpenRAN #ORANRIC #ORANnearRTRIC #Y1openinterface #AIML #AIORAN

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Enhanced enterprise deployments with 5G-Advanced network slicing This white paper provides an overview of 3GPP Release 18 enhancements. Overall, the 5G-Advanced Release 18 network slicing enhancements take network slicing to a more advanced stage where highly customized network slices can be deployed for localized and temporary coverage. The new features also help overcome challenges associated with pre-Release 18 network slicing by simplifying the operations of those network slices as well as associated network signaling. Check out #Nokia presenting at yesterday's XCHANGING IDEAS #50, Global 5G Evolution click #comment #box for full #video #presentation !!! Follow us on Kaneshwaran Govindasamy and Global 5G Evolution #subscribe our #youtube channel #slicing #networkslicing #enterprise #5G #5g #tech #technology

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Two interesting trends in private 5G as of May 2024 🧿Growth and Open RAN: The market for #private #5G is expected to experience significant growth, reaching an estimated value of $129.6 billion by 2032. This growth is driven by the increasing adoption of private networks across various industries, academia, and even public sectors. Additionally, the concept of #OpenRAN (Radio Access Network) is gaining importance. #Open #RAN allows for more flexibility and #interoperability in building private networks, making them more accessible and #customizable. 🧿Focus on Use Cases and Innovation: There's a growing focus on developing specific use cases for private 5G networks. This includes initiatives like the 5G-Testbed-BB project, which is creating a #research #network for exploring applications in #aviation using #drones. These use cases will pave the way for further #innovation and unlock the full potential of private 5G technology. The latest trends in use cases for private 5G networks in May 2024 show a shift towards: 🌀#Sustainability and Energy Efficiency: The #telecommunications sector is looking for ways to reduce its #environmental impact. Private 5G networks can play a role here by enabling #smarter #energy #grids and optimizing #industrial processes. For instance, private 5G can be used to remotely monitor and control energy consumption in factories or distribute #renewable #energy sources more #efficiently. 🌀#Convergence with Other Technologies: There's a growing trend of integrating #private5G with other technologies like #AI and #IoT (Internet of Things). This convergence allows for powerful applications. For example, in #manufacturing, private 5G networks can connect a vast number of #sensors on #machines, enabling real-time #monitoring and AI-powered #predictive #maintenance, reducing downtime and optimizing #production lines. 🌀Focus Beyond Traditional Industries: While manufacturing, #energy, and #transportation remain major adopters, private 5G is finding applications in new areas. This includes: 💠#Retail: Private 5G can improve in-store logistics and enhance customer experiences with features like augmented reality #AR product visualization. 💠#Healthcare: Secure and reliable private 5G networks can facilitate remote #patient #monitoring, #surgery with #robotics, and real-time data analysis for better #diagnostics. 🌀Focus on #Security and #Control: Data security and privacy remain paramount concerns for enterprises. Private 5G offers businesses greater control over their data compared to public networks. This is particularly important for industries like #healthcare and #finance where #sensitive #information is handled. What are your thoughts? 🤔🧐 Follow us on Kaneshwaran Govindasamy & Global 5G Evolution Click comment box. #subscribe our #youtube channel For 5G Private Network advisory services, please contact me.

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I noted a story last week about a collaboration between Ericsson, Qualcomm Technologies, and industrial drone solutions provider Dronus. In a trial at The Ericsson USA 5G Smart Factory, the consortium has successfully tested a 5G mmWave-powered autonomous drone for indoor inventory management. The natively 5G mmWave-connected drone performed several indoor missions within the factory, including autonomous inventory checks. By taking advantage of 5G on mmWave's speeds and latency capabilities, the drone scans barcodes for real-time inventory tracking. This solution not only streamlines processes but also highlights the growing importance of 5G in industrial automation. When looking at the opportunities for 5G in various industry verticals, manufacturing is one of the leading environments where the technology is making a difference. These proof of concept trials are important to showcase how the emergence of standalone 5G offers many industries fresh opportunities. Indoor drones are an example of areas that are likely to be an essential sector in large manufacturing transformations in the future. Offering transferable and easily deployed opportunities will unlock the value. Without this, the private network industry will struggle to scale these largely one-off opportunities beyond trials. #5G #mmWave #Drone #Innovation #SmartFactory #Industry40

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Neutral Host Network, NHNs support various levels of infrastructure sharing including distributed antenna systems (DAS), shared radios, and basebands. Successfully navigating this market requires selecting the right technology and ensuring clear economic logic for all supply chain participants. Key sections of the 5GAmericas white paper include: 🔍 Opportunities and Benefits of NHNs:  NHNs can offer improved connectivity, coverage, favorable economics and management overhead. Significant benefits may include enhanced service quality and new revenue opportunities driven by the growth of private networks, the availability of shared spectrum, and innovative partnership models. 🔍 Market Size, Growth, and Trends:  According to some analysts, the global neutral hosting market may reach $8.7 billion by 2028, driven by surging indoor data traffic and the growing adoption of private networks, particularly in sectors such as #manufacturing, #education, #healthcare, and #retail. 🔍 Network Sharing Architectures and Technological Innovations: examination of three primary NHN architecture models, including Site Sharing, Shared Radio, and Shared RAN, as well as enabling technologies, such Distributed Antenna Systems (#DAS), small cells, repeaters, Open #RAN, virtualization, cloudification, private networks, and network slicing. 🔍 Economic and Regulatory Challenges: headwinds include declining DAS equipment sales, security risks, energy costs, and regulatory barriers. 🔍 Future-Ready for 6G: potential new applications, spectrum requirements, and technological advancements will shape the future of NHNs. Neutral host networks represent a significant #opportunity for the #telecommunications industry. By leveraging shared infrastructure, NHNs can deliver superior #connectivity and #coverage, driving #economic #growth and technological innovation Follow us on Kaneshwaran Govindasamy and Global 5G Evolution Check out this week's #5G #conference, Infobip's API updates! A must watch! click comment box! ⬇💡

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📈  Network APIs are taking off, let's not forget about Security. The CAMARA project has delivered its first major release, and leading telcos and vendors have created the Open Gateway API joint venture. Analysis forecasts revenues of $9Bn by 2029. 🤔 For those responsible for defending the network and subscribers, now is the perfect time to assess what these advanced APIs for seamless network access bring: 🔸 What is the impact of 5G and Network APIs on cybersecurity? 🔸 How to monetize Network APIs without compromising user privacy? 🔸 What are the interoperability challenges with Network APIs? 🔸 What is the regulatory angle to this opportunity? 🔸 How can API security be managed? To help you answer these and other questions, and to ensure you're adequately protected, we have some exciting updates for you: 🎓 We’ve extended our 5G Security Training course to cover API and Network Exposure Functionality in detail, aligned with the latest developments in the CAMARA/Open Gateway projects. 🧪 We’ve added network API/NEF functionality to our award-winning 5G CyberSecurity lab – now you can get hands-on experience with both hacking and protecting these systems. 🛠️ We’ve added a new inspection module to our ACE Breach and Attack Simulation platform. Now automated security testing of Network APIs can be integrated into routine vulnerability management or even your CI/CD pipeline. To try it out: 🔹Email us at contact@secgen.com 🔹Contact our representatives 🔹or simply DM me. 🚀 And monetize Network APIs securely! #5G #NetworkAPIs #Cybersecurity #APISecurity #CICD #SecurityTraining #BAS #SecurityGen

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Excellent post by Javier Domínguez Lacasa about spectrum policy for midband Midband is the lifeline for Telcos to provide high-speed and reliable data services. There is no other spectrum band that offers the reach, bandwidth, and properties like midband. Unfortunately, this is a scarce resource and extremely expensive. As a scarce resource, regulators need to prioritize the benefits of the majority of users who connect daily to these services. Consider this: effective spectrum allocation can enhance network capacity by up to 50%, which directly improves service quality and user satisfaction. With 5G technology expected to cover one-third of the world’s population by 2025, the efficient use of midband spectrum becomes even more crucial. This band is essential for enabling advancements in IoT, smart cities, and autonomous vehicles, and its optimal use could significantly boost these developments. Moreover, the economic implications are substantial. A 10% increase in mobile broadband penetration can lead to a 1.5% rise in GDP in developing economies. This highlights the critical role of midband spectrum in driving not only technological innovation but also economic growth and digital inclusion. https://lnkd.in/gYtybk_s #Telecommunications #Midband #SpectrumPolicy #Connectivity #Innovation

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