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Securing the 5G-Driven Transformation of IoT 

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By Peter Adel, Regional Director at NETSCOUT

The introduction of 5G technology has transformed the Internet of Things (IoT) sector by significantly improving how devices connect and operate. With its high-speed data transfer, minimal delays, and efficient use of spectrum, 5G is  projected to increase IoT connections by 45% by 2025 in the UAE. This represents a significant evolution of how devices interact and function within the IoT network, ushering in a new era of innovation and efficiency in several sectors.

The Growing Importance of 5G in IoT

Recent research shows a 7% year-over-year growth in the cellular IoT market during the first quarter of 2024, highlighting the increasing reliance on and expansion of IoT technologies. As the demand for IoT devices and applications continues to rise, 5G’s capabilities are becoming essential in supporting these advancements. While 4G long term evolution (LTE) has traditionally facilitated IoT connectivity, 5G offers significant enhancements that are set to redefine the landscape.

How 5G Enhances IoT Connectivity

5G technology brings several key benefits that enhance IoT connectivity. One of the most significant advantages is its ability to provide high-speed data transfer. This capability is crucial for handling the massive volumes of data generated by IoT devices. 5G networks can transmit data up to ten times faster than 4G, which is important for applications requiring real-time data processing and large-scale data transfers.

Another major benefit is 5G’s reduced latency, which is less than 10 milliseconds compared to 20-30 milliseconds for 4G. This reduction means that IoT devices can send and receive data with minimal delay, which is vital for applications needing immediate feedback, such as autonomous vehicles, remote surgeries, and real-time industrial monitoring. Also, 5G’s improved spectrum efficiency allows it to handle more devices per square kilometre, supporting up to 1 million devices per square kilometre. This is crucial for addressing the growing need for dense IoT deployments in urban environments and large-scale industrial applications.

Moreover, 5G introduces the concept of network slicing, which enables the creation of virtual networks tailored to specific applications or industries. This capability allows for optimised performance and improved quality of service by allocating network resources based on the unique requirements of different IoT use cases.

Challenges in Integrating 5G with IoT

Despite its advantages, integrating 5G with IoT presents several challenges. The proliferation of IoT devices increases the potential for cybersecurity threats, necessitating secure communications through robust encryption and regular software updates. Extending 5G infrastructure to rural and less populated areas involves significant investment, with the costs associated with deploying 5G base stations and related infrastructure being substantial. Transitioning to 5G may require upgrading existing devices or developing new ones, which can be a costly endeavour for organisations, especially if their current devices are not 5G-compatible. Battery-operated IoT devices may experience higher power consumption with 5G compared to 4G, making energy efficiency a crucial consideration. Additionally, 5G networks use higher-frequency millimetre waves, which can result in coverage gaps, particularly in remote or rural areas, requiring solutions to ensure comprehensive coverage.

To secure IoT networks with 5G, organisations should use strong encryption to protect data and regularly update software to fix vulnerabilities. They must also implement strong authentication methods, like multi-factor authentication, to ensure only authorised users and devices have access. Network segmentation can also help contain breaches and protect critical systems, while  continuous monitoring and real-time threat detection are essential for quickly identifying and addressing security issues.

Securing the 5G-Driven Future of IoT

Looking ahead, 5G promises to secure the future of IoT connectivity, driving advancements in data transfer speed, device interaction, and network performance. Its ability to support high-speed data transfer, reduced latency, and massive device densities will enhance IoT applications across various domains, from smart cities and healthcare to industrial automation and transportation. As IoT devices evolve to meet the demands of 5G, they will need solutions that can empower communications service providers (CSPs) to achieve end-through-end visibility for any IoT device performance. The ongoing development and integration of 5G technology will be crucial in shaping the future of IoT and unlocking new possibilities for innovation and efficiency.

Tech Features

The Infrastructure Is Automated. Why Are the Processes Around It Still Manual?

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Article by Prasanna Rajendran, Vice President – EMEA, Kissflow

Across the Middle East, governments and enterprises are investing heavily in cloud infrastructure to support national digitization agendas, from Vision 2030 in Saudi Arabia to the UAE’s push toward AI-driven government services. Gartner forecasts that IT spending across the Middle East and North Africa will reach $169 billion in 2026, an 8.9 percent increase over 2025, with software spending alone growing 13.9 percent.

Infrastructure as code (IaC) is the practice of defining and provisioning computing infrastructure, including servers, networks, databases, and load balancers, using machine-readable configuration files rather than manual processes or interactive consoles. Rather than logging into a console to click through setup wizards, teams describe their entire infrastructure in version-controlled code that can be reviewed, tested, and deployed like any other software artifact.

For CIOs and IT leaders, this matters because IaC has become the operational standard for any organization running workloads at scale. Grand View Research valued the global IaC market at $1.2 billion in 2025 and projects it to reach $6.1 billion by 2033, a compound annual growth rate of 22.3 percent. That trajectory reflects a clear shift: enterprises are moving from manual, ticket-driven infrastructure management to automated, code-driven provisioning.

What is infrastructure as code?

At its core, IaC means defining resources such as virtual machines, storage volumes, network configurations, security policies, and access controls in declarative or imperative code files. Those files become the authoritative record of what your infrastructure looks like at any moment.

IaC generally follows one of two approaches, depending on whether teams want to define an outcome or prescribe the route to it. Declarative IaC describes the desired end state: you specify what you want, such as three servers, a load balancer, and a database cluster, and the tool works out how to get there. Terraform, AWS CloudFormation, and Azure Bicep all use this method. Imperative IaC instead specifies the exact steps to reach an outcome. You write procedural instructions: create this server, then attach this disk, then configure this network. Ansible and Chef follow that model more closely.

The declarative approach dominates enterprise adoption today because it is easier to maintain and less error-prone. You describe the outcome rather than the procedure, which keeps the code readable even as infrastructure complexity grows.

What separates IaC from traditional infrastructure management is version control. Every change is tracked in Git, reviewed through pull requests, and deployed through automated pipelines. This is the mechanism Gartner points to when it describes IaC as the route to cloud governance and self-service at scale.

Why infrastructure as code matters for enterprise IT

Manual infrastructure management does not scale. When an operations team provisions servers through tickets and console clicks, every environment differs slightly, every deployment carries risk, and every audit turns painful. IaC removes these problems systematically.

Consistency and reproducibility

IaC guarantees that the development, staging, and production environments are consistent. Configuration drift, the slow divergence of environments over time, disappears because every deployment is generated from the same code. When an incident occurs, you can rebuild an environment from scratch in minutes.

Speed and agility

Organizations using IaC provision entire environments in minutes rather than weeks. When business conditions change, whether through a product launch, a capacity spike, or a compliance deadline, IaC lets you respond at the speed of code.

Security and compliance

With IaC, security policies are embedded directly in infrastructure templates. Guardrails apply automatically. Compliance checks run in the CI/CD pipeline before any change reaches production. Security stops being a gate at the end of the process and becomes part of how infrastructure gets built.

Cost efficiency

IaC gives you precise control over resource provisioning. Idle capacity gets identified and decommissioned through code rather than through quarterly manual audits. Cost discipline has grown into a standing function for this reason: 59 percent of the 759 organizations Flexera surveyed for its 2025 State of the Cloud Report now run a dedicated FinOps team, up from 51 percent the year before.

Key infrastructure as code tools for the enterprise

Several tools now anchor enterprise IaC strategy, each suited to a different environment. Terraform and its open-source fork, OpenTofu, remain the dominant choice for cross-cloud work, offering declarative provisioning across multiple clouds using HCL. Organizations standardized on a single cloud often turn to native alternatives instead: AWS CloudFormation for AWS-centric environments, using JSON or YAML, and Azure Bicep for Azure-native deployments. Ansible takes an imperative, YAML-based approach and excels at configuration management and application deployment rather than pure provisioning. Pulumi appeals to developer-led teams by letting them define declarative infrastructure in familiar languages such as Python, TypeScript, or Go.

Common challenges when adopting infrastructure as code

Adopting IaC is not without friction. The most immediate obstacle is usually a skills gap, because IaC asks infrastructure teams to work the way developers do, with version control, code reviews, and CI/CD pipelines. That shift is cultural as much as it is technical, and it requires deliberate investment in training.

State management adds complexity of its own. Declarative tools maintain state files that track current infrastructure, and multi-team environments need remote state backends, locking, and workspace isolation from day one to avoid conflicts.

Legacy system integration is another common obstacle, since not everything can be expressed in code immediately. Most organizations start with new cloud workloads and progressively extend IaC to existing systems through API wrappers.

Governance and drift detection require ongoing discipline. IaC only delivers its full value once it becomes the sole path for infrastructure changes, which makes continuous drift detection and sustained cultural enforcement critical rather than optional.

Where workflow automation fits in an IaC-driven enterprise

Infrastructure as code solves the provisioning problem. Enterprise IT complexity does not stop there. The layer above IaC, covering the processes, approvals, and operational logic that run on top of provisioned infrastructure, is where most organizations still depend on fragmented tools, manual handoffs, and spreadsheet-based tracking. That gap is especially visible across the Middle East, where cloud adoption and ambitious national targets often outpace the operational processes needed to govern them.

Regulatory pressure widens the gap further. Gartner forecasts worldwide sovereign cloud IaaS spending at $80 billion in 2026, a 35.6 percent rise over 2025, with governments as the main buyers. Provisioning infrastructure inside a national boundary is one requirement. Proving that every approval, exception, and access grant on that infrastructure followed a governed path is another, and code alone does not answer it.

This is where workflow automation platforms operate as a digital backbone for enterprise operations. IaC automates the infrastructure layer. A no-code or low-code workflow platform automates the process layer: IT service requests, change management approvals, vendor onboarding, compliance workflows, and the hundreds of cross-functional processes that connect people, systems, and decisions across the enterprise.

For IT leaders across the region pursuing IaC adoption, particularly those operating under strict data residency and regulatory requirements, this kind of platform complements the strategy by giving business teams a way to build and manage operational workflows without adding to the IT backlog. IaC handles your infrastructure. Workflow automation handles everything that runs on it.

See how Kissflow governs the change approvals, access requests, and compliance workflows that sit on top of your cloud infrastructure in a 30-minute demo.

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Tech Features

Role of Digital Citizenship in Countering Misinformation and Protecting Social Cohesion in UAE

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Dr. Soumaya Abdellatif, Head of Sociology Department, Associate Professor, College of Humanities and Sciences, Ajman University

The greatest challenge of our time is not merely that people believe false information. It is that the very boundary between truth and opinion, fact and emotion, credibility and visibility, has become increasingly vague.

This shift signals a transformation in symbolic authority itself. Trust has not simply declined – it has been displaced. Traditional institutions no longer monopolize credibility, while digital platforms have multiplied voices without necessarily strengthening legitimacy.

In societies such as the UAE – built on coexistence, institutional trust, and the delicate management of cultural diversity, this challenge carries particular strategic weight. This is where digital citizenship ceases to be an educational slogan and becomes a matter of national importance.

Beyond Media Literacy

At its core, digital citizenship is a contemporary form of civic responsibility. It deals with how individuals participate in the digital public sphere, how they interpret information, and how they contribute – consciously or unconsciously, to the production of collective trust.

(1)As Manuel Castells once stated, power in network societies increasingly operates through control over communication flows. The question is no longer simply who speaks, but whose voice becomes visible, amplified, and believed.

Trust as Social Infrastructure

In the UAE, misinformation is not merely a media concern – it is also a matter of social architecture. The country’s model of stability rests on institutional credibility, intercultural coexistence, and high levels of public trust.

This explains why the UAE has invested heavily, not only in digital transformation, but also in institutional clarity and communication governance. (2) Federal Decree-Law No. 34 of 2021 on combating rumours and cybercrime reflects an important principle: digital stability is inseparable from social stability. The objective is not merely punitive regulation, but the protection of public confidence itself.

Youth, Families and the Transformation of Authority

Young people are not passive consumers of information; they are producers of narratives, identity, legitimacy, and influence. They shape public conversations long before institutions respond to them.

In previous generations, legitimacy flowed vertically: from institutions, schools, family structures, and recognised expertise. Today, authority is increasingly negotiated horizontally- through peers, influencers, networks, and algorithmic visibility.

In addition, families act as the first school of civic trust. Long before formal media literacy programs, individuals learn how to relate to truth, disagreement, and legitimacy inside the home.

Why Social Sciences Matter

The response to misinformation cannot be reduced to fact-checking mechanisms or technical media literacy alone. What is required is a deeper intellectual infrastructure – one that social sciences are uniquely positioned to provide.

Sociology, communication studies, political science, and anthropology do not merely teach individuals how to verify information; they teach them how power operates, how legitimacy is constructed, how public opinion is shaped, and how collective trust is sustained or eroded.

A National Priority

The UAE has positioned itself as a global leader in artificial intelligence, digital governance, and future-oriented policy. This ambition is both necessary and admirable.

In this scenario, digital citizenship is not a secondary educational concern. It is part of national security, social sustainability, and the long-term legitimacy of institutions.

The UAE is not only managing digital transformation; it is helping to define what responsible digital modernity should look like.

Because in the end, the future of social cohesion will not be decided by technology itself, but by who is trusted to interpret reality in the digital age.

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Spotlight

Clarity Before Compute: Why AI Strategy Must Come Before Infrastructure

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Enterprise AI has entered a new phase. The conversation is no longer centred on whether organisations should invest in artificial intelligence, but on how they can transform that investment into measurable business value.

By: Mohammed Hilili – General Manager, Lenovo Gulf

Across the GCC, enterprises are moving beyond experimentation. Pilot projects are giving way to enterprise-wide deployments as organisations seek to integrate AI into customer experiences, business operations, software development, cybersecurity and decision-making. Yet despite growing investment, many AI initiatives continue to struggle to deliver the outcomes leadership teams expect.

In my experience, the reason is rarely the technology itself. More often, organisations begin with the wrong conversation.

Too many AI discussions start with infrastructure specifications, GPU availability or the latest foundation models. These are undoubtedly important decisions, but they are not the first ones organisations should make.

The first question is much simpler.

What business problem are we trying to solve?

Without a clear answer, AI initiatives often remain isolated demonstrations of technical capability rather than platforms capable of delivering sustainable business value.

From AI Pilots to Enterprise Platforms

Across industries, organisations have spent the past two years experimenting with generative AI. Many have successfully launched departmental pilots that demonstrate what AI can achieve within a controlled environment. The greater challenge now lies in scaling those experiments across the enterprise.

That transition requires far more than additional computing power. It demands clear governance, high-quality data, well-defined business objectives and an architecture capable of supporting continuous growth. Successful AI adoption is increasingly becoming an organisational transformation exercise rather than simply another technology deployment.

Business Strategy Before Infrastructure

I recently worked with a leading regional financial institution looking to strengthen its research and development capabilities through AI. The ambition was clear, but many practical questions remained unanswered.

How much computing capacity would the organisation require? Which GPU architecture would support both current and future workloads? How could the environment remain scalable as AI adoption expanded across the business?

These may appear to be technology questions. In reality, they are strategic business decisions with long-term operational consequences.

Instead of beginning with hardware selection, we started by understanding the organisation’s objectives. Together with the leadership team, we assessed AI readiness, identified priority business outcomes and defined what success would look like before discussing infrastructure.

Only after establishing that foundation did we determine the appropriate compute resources, architectural approach and deployment model required to support long-term growth.

The result was not simply a successful implementation but an AI platform capable of evolving alongside the organisation’s ambitions.

AI Readiness Extends Beyond Technology

Many organisations still view AI readiness primarily through the lens of infrastructure. In reality, readiness begins much earlier.

Leadership alignment, data quality, governance frameworks, cybersecurity, skills development and measurable business outcomes all influence whether an AI initiative succeeds or stalls. Infrastructure remains essential, but it should support strategy rather than define it.

The organisations achieving the strongest results are those treating AI as a long-term business capability rather than a series of disconnected technology projects.

Building for a Hybrid AI Future

Enterprise AI environments are also becoming increasingly hybrid. Certain workloads will remain on-premises to address latency, compliance or data sovereignty requirements, while others will leverage the scalability of public cloud environments.

This makes architectural flexibility increasingly important. Organisations need infrastructure strategies capable of supporting multiple deployment models while allowing AI workloads to evolve alongside changing business priorities.

Selecting technology is therefore no longer simply about purchasing hardware. It is about building an adaptable foundation capable of supporting continuous innovation over many years.

The GCC Opportunity

The GCC is uniquely positioned to accelerate enterprise AI adoption. Governments across the region continue investing heavily in digital transformation, sovereign AI capabilities and next-generation cloud infrastructure while strengthening regulatory frameworks around data governance and cybersecurity.

These investments provide organisations with an increasingly mature environment in which to deploy AI at scale. However, long-term success will depend less on access to technology than on the ability to align AI investments with clear operational priorities and measurable business outcomes.

As AI becomes embedded within core enterprise operations, leadership decisions made today will determine competitive advantage for years to come.

Why Clarity Still Comes Before Compute

Technology will continue evolving at remarkable speed. New AI models, specialised processors and deployment approaches will continue reshaping the enterprise landscape.

What will remain constant is the importance of making the right decisions before investing.

At Lenovo, this philosophy shapes how we work with customers. We believe AI is not simply a product to deploy, but an organisational capability that develops over time. By combining advisory expertise with infrastructure, lifecycle services and long-term planning, organisations can reduce uncertainty, optimise investment and build AI platforms that continue creating value as business needs evolve.

The organisations that lead in the AI era will not necessarily be those with the largest AI budgets or the most powerful infrastructure. They will be those that begin with business clarity, build the right foundations and scale with purpose.

Because in enterprise AI, infrastructure enables transformation—but clarity makes it possible.

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