devopsy.kinsta.cloud

Category: Infrastructure/Networking

  • Akamai Launches Gecko Edge Computing Services

    Akamai Launches Gecko Edge Computing Services

    Akamai Technologies today launched an initiative that promises to make it simpler to centrally manage and deploy application workloads on edge computing platforms.

    Shawn Michels, vice president for product management for cloud computing Akamai, said a Generalized Edge Compute (Gecko) offering leverages the global points of presence (PoPs) that Akamai uses for its content delivery network (CDN) to now deploy application workload managed via the Linode cloud service the company acquired in 2022.

    At the core of this offering is a set of virtual machines that enable a full stack of application software to be deployed in an edge computing environment to eliminate latency that would otherwise be encountered when transferring data to a cloud computing environment. The ultimate goal is to provide IT organizations with a federated set of services they can employ to process data where it makes the most sense based on performance requirements, said Michels.

    For example, applications infused with artificial intelligence (AI) will need to be able to invoke enough compute resources to run inference engines at the edge, while other less compute-intensive application workloads are best deployed in cloud computing environments, he noted.

    Michels added that rather than locking IT teams into a specific architecture, Akamai is committing to meeting IT organizations where they are, including adding support for containers running on Kubernetes clusters in its PoPs later this year.

    Akamai has more than 4,100 points of presence around the globe. With the acquisition of Linode, Akamai added a set of cloud computing services to compete directly against hyperscalers such as Amazon Web Services (AWS), Microsoft and Google by making cloud services available at a lower cost at a time when more organizations than ever are concerned about the total cost of IT.

    In its first phase of Gecko, Akamai will provide access to virtual machines in 100 locations by the end of the year. Akamai has already deployed Gecko servers in Hong Kong SAR; Kuala Lumpur, Malaysia; Querétaro, Mexico; and Johannesburg, South Africa, as well as in cities without a concentrated hyperscaler presence, including Bogotá, Colombia; Denver, Colorado; Houston, Texas; Hamburg, Germany; and Marseille, France. Deployment of a tenth Gecko region this quarter is planned for Santiago, Chile. Akamai is committing to adding hundreds of cities to its global cloud computing footprint over the next several years.

    In the longer term, Akamai also plans to add automated workload orchestration to make it easier for developers to build applications across hundreds of distributed locations.

    More workloads than ever are being deployed at the network edge as IT teams look to deploy software closer to the point where data is being created and consumed. That will require extending the reach of existing DevOps workflows to edge computing environments that will be based on everything from x86 and Arm processors to graphical processor units (GPUs).

    The challenge, as always, will be finding a way to effectively manage those workloads when the IT teams responsible for them are often physically located thousands of miles away.

  • F5 Looks to Streamline Application Networking

    F5 Looks to Streamline Application Networking

    At its AppWorld 2024 conference this week, F5 announced a software-as-a-service (SaaS) edition of its NGINX application networking portfolio, which are now all available under a single enterprise license.

    Shawn Wormke, general manager for NGINX, said NGINX One will eliminate much of the friction enterprise IT teams currently encounter when implementing NGINX Plus, NGINX Open Source, NGINX Unit, NGINX Gateway Fabric and the Kubernetes Ingress Controller the company provides.

    As part of that effort, F5 is also now making available a unified console across its application networking portfolio that promises to streamline the management of the F5 application networking portfolio.

    Currently available under an early access program, NGINX One creates an as-a-service platform through which enterprise IT organizations can invoke and pay for these capabilities on an as-needed basis, said Wormke. The overall goal is to reduce the total cost of application networking by eliminating the need for IT teams to integrate the various elements of NGINX One on their own, he added.

    In general, application networking has become more complex with the rise of cloud-native applications based on microservices. By reducing the cognitive load required to network those applications, it becomes simpler to make network operations a more natural extension of DevOps workflows, noted Wormke.

    Most organizations have some level of experience with application networking using proxy servers, but as application environments have become more complex, the need for gateways and ingress controllers to provide these capabilities at scale has become more apparent. As a result, more IT organizations are starting to revisit how they are structured. There may always be a need for dedicated networking specialists to manage the physical network underlay, but as other networking services become more integrated with DevOps workflows, responsibility for some networking services is starting to shift further left toward DevOps teams that will either deploy these capabilities themselves or take advantage of a SaaS platform such as NGINX One. The overall goal is to be able to dynamically provision application networking services without having to wait for a network administrator to provision them.

    There are, of course, a lot of approaches to application networking that are now emerging. Regardless of how application networking evolves, however, the rigidity that has characterized the delivery of network services for decades should finally start to fade away. Today, outside of a cloud computing environment, it’s still common for IT teams to provision virtual machines or Kubernetes pods in hours only to wait days or even weeks for network connectivity to be provisioned. As IT environments become more hybrid and more workloads are pushed to the edge, there is a clear need for a more agile approach.

    Each organization will need to decide how best to approach application networking across legacy monolithic applications, microservices and event-driven applications at a time when IT environments have become much more complex to manage. The challenge, as always, is reducing as much friction as possible without unduly raising the total cost of IT to a point where it becomes unsustainable.

  • Azure Cost Optimization: A Complete Guide

    Azure Cost Optimization: A Complete Guide

    Microsoft Azure is one of the “big three” cloud providers, and is a primary part of IT expenditure for many companies. Azure cost optimization is a strategy that involves managing and controlling Azure costs to ensure efficient usage and spending. It requires a thorough understanding of where and how your resources are being used, as well as insight into the various pricing options available.

    Azure cost optimization involves implementing best practices related to managing cloud costs, such as turning off resources when not in use, choosing the right-sized resources, taking advantage of Azure discounts and more. By optimizing these aspects, you can ensure that you are only paying for the resources you need and are using them efficiently.

    Azure cost optimization is an ongoing strategy that involves constant monitoring and adjustments as your usage and needs evolve. This means that you need to be proactive and vigilant in your cost management efforts, regularly reviewing your usage patterns and making adjustments as necessary.

    Why is Azure Cost Optimization Important?

    As organizations migrate more and more of their workloads to the cloud, the costs associated with Azure usage can quickly escalate if not properly managed. This can lead to budget overruns and decreased profitability.

    By leveraging Azure cost optimization strategies, businesses can gain greater control over their Azure spending. This not only helps in reducing costs but also enables businesses to more accurately predict their future cloud spending. This can be a major advantage when it comes to financial planning and budgeting.

    Moreover, Azure cost optimization can also lead to improved operational efficiency. By ensuring that resources are used efficiently, businesses can avoid wasted spend and focus their resources on the tasks that truly add value to their operations. This can lead to increased productivity and better overall performance.

    Azure Cost Optimization Tools

    Azure provides several free tools designed to help customers optimize their cloud spending. These tools provide insights into your usage patterns, help you identify potential cost savings, and guide you in implementing best practices for cost management.

    Azure Cost Management and Billing

    Azure Cost Management and Billing provides detailed insights into your Azure spending. It allows you to track your spending by resource, location, service, and more, enabling you to identify where your money is going.

    With Azure Cost Management and Billing, you can set up budgets to control your spending and set up alerts to notify you when you’re nearing your budget limits. You can also analyze your spending trends over time, which can be useful for forecasting future costs.

    Azure Advisor

    Azure Advisor provides personalized recommendations based on your usage and configurations, helping you optimize your resources for cost, performance, security and reliability.

    Azure Advisor can identify unused or underutilized resources you can shut down or resize to save money. It also provides recommendations for purchasing reserved instances or using Azure Hybrid Benefit, which can lead to significant cost savings.

    Azure Pricing Calculator

    The Azure Pricing Calculator is a tool for estimating the cost of Azure services before you use them. You can input your expected resource usage, and the calculator will provide an estimate of the costs.

    This tool can be especially useful when you’re planning a new workload or considering a migration to Azure. By understanding the potential costs upfront, you can make more informed decisions and avoid surprises.

    Azure Monitor

    Azure Monitor is a comprehensive service that provides insights into your application performance, infrastructure, and network. While primarily used for performance monitoring, it can also provide valuable insights for cost optimization.

    For example, Azure Monitor can help you identify overutilized or underutilized resources, enabling you to make adjustments to optimize your costs. It can also help you track your resource usage over time, providing insights into your spending patterns.

    Azure Resource Graph

    Lastly, Azure Resource Graph is a service that enables you to explore your Azure resources at scale. It provides a unified view of your resources across all your subscriptions, making it easier to manage and optimize your resources.

    With Azure Resource Graph, you can quickly identify resources that are not in use or are underutilized, allowing you to reduce unnecessary spending. It also enables you to visualize your resource usage, helping you understand your spending patterns better.

    6 Strategies for Azure Cost Optimization

    Now that we are familiar with the basics of cost optimization on Azure and the tools the platform provides, let’s review some strategies that can help you optimize and reduce costs in Azure.

    1. Right-Sizing Azure Resources

    One of the simplest yet most impactful strategies for Azure cost optimization is to right-size your Azure resources. This involves matching your business requirements with the appropriate Azure resources in terms of type, size and quantity.

    Too often, organizations over-provision their Azure resources, which leads to unnecessary expenditures. By right-sizing, you ensure that you’re only paying for what you need. This can be achieved by closely monitoring your Azure resources usage, identifying any underutilized resources, and scaling them back accordingly.

    Remember, Azure provides a range of resource types, each with its own set of capabilities and costs. Always cross-verify whether the selected resource is the most cost-effective one for your specific use case. For instance, if your application doesn’t require high compute power, choosing a lower-tier virtual machine could significantly reduce your costs.

    2. Utilizing Azure Budgets and Alerts

    Azure Budgets and Alerts are powerful tools for cost management. They provide you with the ability to set a budget for your Azure spending and receive alerts when your spending approaches or exceeds your budget.

    Setting up an Azure budget is a proactive approach to cost management. It allows you to allocate your finances effectively and avoid any unexpected charges. Furthermore, with Azure alerts, you can instantly get notified when your consumption is nearing your budget. This gives you ample time to adjust your usage or increase your budget, preventing any service disruptions due to overspending.

    Moreover, Azure Budgets and Alerts are highly customizable. You can create multiple budgets for different scopes (like management groups, subscriptions, or resource groups), set your alert conditions, and even automate actions based on these alerts using Azure Logic Apps.

    3. Tagging and Resource Organization

    Azure tagging and resource organization is another crucial strategy for Azure cost optimization. Tags are user-defined key-value pairs that you can assign to your Azure resources. They help you categorize and manage your resources based on your business needs.

    By effectively tagging your Azure resources, you can gain visibility into your resource consumption at a granular level. This can help you identify any high-cost resources, track your spending by project, department or environment, and make informed decisions about cost optimization.

    Organizing your resources into logical groups can also simplify management and governance. For instance, you can group your resources based on their life cycle or purpose and apply consistent policies and access controls across the group. This not only improves security and compliance but also helps in identifying any redundant resources that can be eliminated to save costs.

    4. Utilizing Storage Tiers Based on Usage Requirements

    Another effective strategy for Azure cost optimization is to utilize different storage tiers based on your usage requirements. Azure Storage provides three access tiers – hot, cool and archive, each designed for different types of data.

    The Hot tier is for data that is frequently accessed and requires low latency. It has higher storage costs but lower access costs. The Cool tier is for infrequently accessed data, offering lower storage costs but higher access costs. Finally, the Archive tier is the most cost-effective solution for long-term retention of rarely accessed data.

    By carefully analyzing your data usage patterns and selecting the right storage tier, you can significantly reduce your Azure storage costs. Moreover, Azure offers automatic tiering options like blob-level tiering and life cycle management policies, which can further optimize your storage costs based on your data lif ecycle.

    5. Leveraging Azure Hybrid Benefit

    If you’re an existing Microsoft customer, leveraging Azure Hybrid Benefit can be a game-changer for your Azure cost optimization. Azure Hybrid Benefit allows you to bring your on-premises Windows Server and SQL Server licenses with software assurance to Azure, offering significant cost savings.

    With Azure Hybrid Benefit, you can run Windows Server and SQL Server workloads on Azure at a reduced rate, providing substantial savings as compared to pay-as-you-go prices. Furthermore, Azure is the only cloud provider that offers such benefits, making it an ideal choice for businesses looking to optimize their cloud costs while leveraging their existing Microsoft investments. Azure Hybrid Benefit is starting to support software from other companies, including Oracle and Red Hat.

    6. Regularly Reviewing and Optimizing Subscriptions

    Lastly, regularly reviewing and optimizing your Azure subscriptions is a must for Azure cost optimization. This involves keeping track of your Azure usage and costs, identifying any inefficiencies and making necessary adjustments.

    Azure provides several tools like Azure Cost Management and Azure Advisor that can help you gain insights into your Azure spending and offer personalized recommendations for cost optimization. For instance, Azure Advisor can identify idle resources that can be shut down to save costs or suggest reserved instances for predictable workloads to avail discounts.

    Moreover, consider exploring Azure Cost Management Power BI App for advanced reporting and analysis of your Azure spend. It offers a rich set of visuals and filters that can help you uncover deep insights into your cost data and drive cost efficiency.

    In conclusion, while Azure offers a plethora of services and capabilities, managing costs effectively requires strategic planning and continuous monitoring. By implementing the above strategies, you can ensure that you’re making the most out of your Azure investments while keeping your costs under control.

  • CloudBolt Commits to Applying AI to FinOps

    CloudBolt Commits to Applying AI to FinOps

    CloudBolt Software today revealed it plans to infuse artificial intelligence (AI) into the financial operations (FinOps) capabilities it provides via its IT management platform over the coming year.

    Kyle Campos, chief product and technology officer for CloudBolt, said given the inherent complexity of modern IT environments, there is a need to apply machine learning algorithms and other forms of AI to enable IT organizations to apply policies in real-time to reduce costs. That capability is especially critical in cloud computing environments where services are often invoked by developers with little to no oversight, he noted.

    FinOps is a discipline that promotes a shared responsibility for an organization’s cloud computing infrastructure and costs. Rather than having disparate procurement teams working in silos to identify and approve costs, business, financial and IT leaders establish policies and best practices for usage that are programmatically enforced. The FinOps Foundation, an arm of the Linux Foundation, has been defining a set of FinOps best practices, but many organizations still lack the discipline required to implement them. One of the major reasons organizations lack this discipline is that many of them have been allowing application developers to provision cloud resources themselves. It’s not until the bill comes due at the end of the month that finance teams realize there is an issue when there is a sudden spike in costs.

    Rather than deploying a separate platform to manage FinOps, CloudBolt is making a case for integrating a framework for managing FinOps within the same platform IT teams use to manage those IT environments. That approach makes it possible to apply FinOps policies in a way that ensures best practices for controlling costs are implemented without creating yet another silo within an IT organization, said Campos.

    Running application workloads in the cloud is fundamentally different than running them in an on-premises IT environment where costs are largely fixed. Not many developers have much of an appreciation for the additional storage and cybersecurity expenses that are generated every time a new workload is added. As a result, many organizations lack visibility into the total cost of cloud computing until the monthly bill arrives. By then, it’s too late for IT teams to have any impact on the outcome.

    In the face of ongoing economic uncertainty, more organizations are clearly moving to reduce cloud computing costs more aggressively. In an ideal world, IT teams would be able to instantly see what impact any change to an IT environment will have on costs as part of any scenario planning exercise, said Campos.

    While most organizations would like to reduce their cloud costs, it’s just as important to ensure that the bills being incurred are predictable. Finance teams don’t appreciate surprises, no matter how important an application may be. IT leaders are now being held more accountable than ever to make sure cloud computing costs meet expectations from one month to the next. The challenge now is finding a way to inject controls in IT environments long after applications have already been deployed.

  • 5 Serverless Challenges of DevOps Teams and How to Overcome Them

    5 Serverless Challenges of DevOps Teams and How to Overcome Them

    Serverless is a cloud computing execution model where the cloud provider dynamically manages the allocation of machine resources. The term ‘serverless’ might be somewhat misleading as it doesn’t mean servers are not involved. Instead, it means that developers no longer have to think about servers, even though they’re running on them.

    The idea is to abstract the infrastructure away so that developers can focus solely on the code. Functions, the units of code, are triggered by a variety of events, including HTTP requests, database events, queuing services, monitoring alerts, file uploads, scheduled events (cron jobs), and user sign-ups or in-app activities.

    The Importance of Serverless for DevOps Teams

    Serverless computing brings a paradigm shift in how applications are built, deployed and managed, directly impacting DevOps teams. The core advantage of serverless for these teams is the significant reduction in operational overhead. With serverless, the cloud provider takes responsibility for running the server, ensuring its reliability, and scaling the infrastructure. This frees DevOps teams from the routine tasks of server provisioning, maintenance, and patching, allowing them to focus more on optimizing the application’s code and business logic.

    However, this shift also demands a change in mindset and approach. DevOps teams must adapt to a more granular, event-driven architecture that serverless promotes. They need to design systems thinking about individual functions and how they interact, instead of traditional monolithic applications or even microservices. This requires a deeper understanding of the cloud environment and its services, as serverless functions are often tightly integrated with other cloud services like databases, message queues, and API gateways.

    Moreover, serverless computing introduces new challenges in areas like security, monitoring, and cost management. For instance, the ephemeral nature of serverless functions can make traditional monitoring approaches less effective, and the dynamic scaling can lead to unpredictable costs. DevOps teams need to develop new strategies and adopt specialized tools to address these challenges. Despite these issues, the benefits of serverless – in terms of agility, scalability, and potential cost savings – make it an increasingly essential tool in the DevOps arsenal, particularly for organizations looking to innovate and deploy rapidly in a cloud-centric world.

    5 Serverless Challenges of DevOps Teams and How to Overcome Them

    1. Complexity of Monitoring in Serverless

    A main challenge in the serverless world is the complexity of monitoring. Unlike traditional architectures where you can monitor physical or virtual servers, in serverless, you need to monitor individual functions. This can be tricky as you may have hundreds or even thousands of functions running simultaneously.

    To effectively monitor serverless architectures, you need to go beyond traditional methods. You need tools that can provide insights at the function level, such as AWS CloudWatch or Azure Monitor. These tools allow you to monitor metrics like execution time, error rates, and invocation counts for each of your functions.

    But monitoring is not just about gathering metrics. It’s also about understanding the relationships between your functions and other components of your system. For this, you need distributed tracing tools like AWS X-Ray or OpenTelemetry, which can provide a detailed view of how requests flow through your system.

    2. Managing Lambda Cold Starts

    One of the most common serverless challenges that DevOps teams face is cold starts. A “cold start” refers to the delay that occurs when a function is invoked after being idle for a while. This delay can significantly impact the performance of your applications, especially those that rely on real-time processing.

    The first step to managing Lambda cold starts is understanding what triggers them. Typically, a cold start happens when a new instance of your function is created, which can be due to several reasons, such as an increase in traffic, the deployment of a new version of your function or after a function has been idle for too long.

    To overcome this challenge, there are several strategies you can employ. First, you can use provisioned concurrency, a feature offered by AWS Lambda that allows you to keep a specified number of function instances warm and ready to respond to invocations. Another strategy is to design your applications to be resilient to cold starts by implementing retry logic or using asynchronous invocation when possible.

    3. Security Concerns in Serverless Architectures

    Security is a top concern for any DevOps team. In serverless architectures, you have less control over the underlying infrastructure, making it more difficult to ensure the security of your applications.

    The first step to securing your serverless applications is understanding the shared responsibility model. In a serverless environment, the cloud provider is responsible for securing the infrastructure, while you are responsible for securing your code and configurations. This means you need to pay extra attention to things like input validation, error handling and secure configuration practices.

    Another key aspect of serverless security is managing permissions. Each of your functions should have the least privileges necessary to perform its task. This can be achieved by using identity and access management (IAM) services provided by your cloud provider.

    4. Managing Third-Party Dependencies

    Managing third-party dependencies is another challenge that DevOps teams often face in serverless architectures. These dependencies can introduce vulnerabilities into your applications, affect the performance of your functions, and even increase the cost of your serverless deployments.

    The key to managing third-party dependencies is to minimize their use. Only use dependencies that are necessary for your application and regularly review them to ensure they are still needed. You should also keep your dependencies up-to-date to benefit from the latest security patches and improvements.

    When using third-party dependencies, it’s also important to understand their impact on your functions. You can use tools like AWS X-Ray or Google Cloud Trace to monitor how these dependencies affect the performance of your functions.

    5. Cost Management and Optimization

    While serverless can be cost-effective, it’s easy to rack up high bills if you’re not careful. This is because in serverless, you pay for every invocation of your functions, even if they result in errors.

    To manage costs in serverless, you need to monitor your usage closely. Tools like AWS Cost Explorer or Google Cloud Billing can provide insights into your spending and help you identify areas for optimization.

    You can also optimize costs by designing efficient functions. This means writing code that executes quickly and efficiently, minimizing the use of third-party dependencies, and managing the concurrency of your functions.

    In conclusion, while serverless technologies offer many benefits, they also present unique challenges for DevOps teams. By understanding these challenges and employing the right strategies, you can effectively manage and overcome them, ensuring the successful delivery of your serverless applications.

  • How Network APIs Will Finally Realize the Potential of 5G Slicing

    How Network APIs Will Finally Realize the Potential of 5G Slicing

    The applications used by people and businesses today run over the top of the network. That is, they use the network to transmit data from one point to another but don’t interact with the network in any way.

    As those applications get more advanced, that comes with a risk. If the network isn’t provisioned adequately, a self-driving car, for instance, might suddenly lose connectivity and freeze in the middle of an intersection.

    That’s why developers are progressively realizing they’re going to require more from the network if they are to create revolutionary new applications. But the catch is they’re also not network specialists.

    Instead, they yearn for quick and simple ways to tap into and onboard 5G network capabilities within their applications — to dynamically adjust connectivity speeds based on real-time conditions, for example. That’s where network application programming interfaces (APIs) enter the picture.

    In 2023, the telecoms industry committed to unprecedented levels of openness with the announcement of the GSMA Open Gateway initiative and the growing popularity of the CAMARA project.

    In 2024, there is an expectation that there could be even more momentum around and demand for open network APIs as developers start to get real access to them — and begin to explore the potential of leveraging specialized network capabilities, delivered through techniques such as network slicing for their enterprise and consumer applications.

    What are Network APIs and How Will They Be Used?

    A network API is like any other API that allows for two or more applications to communicate with each other. It’s just that, in this case, one of those applications is the network itself.

    This is possible because today’s cloud-native 5G networks are fundamentally software-based, meaning they are also programmable through APIs and other software development tools. So unlike the networks of years ago, which were more hardware-dependent and closed in nature, developers can now get easy access to deep functionality and data within the network.

    Through a network API, applications and networks can share information about their status and needs, allowing for optimizations to be made on either side. The network could signal to a drone or autonomous vehicle where other related devices are operating or whether congestion is likely to occur in a given area, enabling on-the-fly route changes to maintain optimal performance. Or the application could use that information to request specialized capabilities from the network in certain situations, such as low-latency connectivity or more uplink capacity.

    The ability to deploy specialized network capabilities for specific applications in specific locations may sound familiar. It’s essentially the promise of network slicing, which was promoted heavily in the early days of 5G rollouts but never really caught on as expected.

    This is largely because network slices have to be planned for and provisioned well in advance — a dealbreaker for applications that need to manipulate parameters such as quality of service based on real-time conditions.

    Network APIs change that, providing access to specialized network capabilities in a dynamic, automated way — whether by spinning up a network slice or through the use of other telecommunications tools. The emerging applications of tomorrow will increasingly require such specialized network capabilities.

    Consider beyond visual line of sight (BVLS) drones that are operated remotely by a person hundreds of kilometers away. As the drone travels, it will need different network capabilities at different parts of the journey based on the unique conditions it encounters along the way.

    Deutsche Telekom has been working to deploy network APIs for this very scenario, which includes APIs for location verification (for more precise tracking of the drone’s position) as well as “quality on demand,” so that as it passes over highly congested areas where thousands of people are also using up network capacity, the drone can get greater prioritization to ensure it doesn’t fall out of the sky.

    That’s just one potential use case. Network APIs can open up innovations for industrial robots, real-time streaming of immersive video using multiple cameras, latency-sensitive applications like VR and cloud gaming, and much more.

    Creating a Network-Powered System Ecosystem

    APIs can help foster a network-powered ecosystem of digital innovation that brings benefits to everybody involved. By being able to leverage specialized network capabilities on demand, developers can create innovative applications and experiences for their customers — transforming their ideas into real solutions.

    Existing applications can also be enhanced for better performance, such as drones that can reliably transmit high-definition video from any location and under any circumstances to improve the situational awareness of first responders and public safety agencies.

    For the communication service providers (CSPs) who operate the networks, these APIs will help deliver a better return on investment for their 5G infrastructure. Revenue growth for traditional communications services in both the consumer and enterprise markets is limited by an unwillingness to pay more for those services and the perception that value lies in the applications rather than the network.

    Thus, the need for CSPs to develop new revenue streams has never been greater. By charging developers for access to the network APIs — and by forging closer connections to the applications that will use the capabilities within the network — CSPs will be better able to generate monetizable value from their networks.

    What’s Ahead for Network APIs

    APIs have been around for more than two decades. The fundamental principles of network slicing have been talked about since the introduction of 4G. While these technologies have been around for years, they will come together in exciting new ways in 2024, enabling entirely new possibilities.

    In the year ahead, there will likely be a greater demand for specialized network capabilities among application developers. That demand will be driven by early digital adopters in industries such as oil and gas, automotive, industrial and high-tech manufacturing, public safety, security, gaming and entertainment, and others.

    But it’s important to note that no one company can make all this work. There needs an ecosystem of companies coming together. Developers need to demand it, and CSPs need to build systems and platforms to support it.

    Infrastructure vendors will play a role as well, with network as code platforms to provide easy access to network APIs — serving as the bridge that enables greater levels of collaboration, innovation and mutual growth so everybody can harness the full potential of 5G networks.