5G and IoT Training Course

This instructor-led, live training in South Africa (online or onsite) is designed for intermediate-level telecom professionals, AI engineers, and IoT specialists keen on exploring how 5G networks accelerate Edge AI applications.

Upon completion of this training, participants will be able to:

• Grasp the fundamentals of 5G technology and its influence on Edge AI.
• Deploy AI models optimized for low-latency applications within 5G environments.
• Implement real-time decision-making systems leveraging Edge AI and 5G connectivity.
• Optimize AI workloads to ensure efficient performance on edge devices.

This instructor-led, live training in South Africa (online or on-site) is aimed at business managers who wish to learn only the critical information needed to make important decisions about the adoption of 5G. This course is not a technical course but rather a course on the strategic thinking needed to prepare for the arrival of 5G. The technical coverage and industry coverage will be adapted to the audience.

By the end of this training, participants will be able to:

• Identify the opportunities that 5G brings to the organisation.
• Identify the risks that 5G poses to business and industry.
• Understand and distinguish the different technologies and standards underlying 5G.
• Understand the role that 5G will play in the further development of AI and IoT.
• Head up 5G initiatives that lead to improvements in customer service and operational efficiency.
• Initiate a strategy for adopting 5G products and services within the organisation as well as across external partner organisations.

This instructor-led, live training in South Africa (online or onsite) is designed for intermediate-level professionals seeking to comprehend and assess the dynamics, scope, and deployment of 5G networks within technical settings.

Upon completion of this training, participants will be equipped to:

• Analyse how 5G networks behave within clustered environments.
• Gain insight into the RF environment unique to 5G technology.
• Evaluate real-world 5G implementation examples from various countries.
• Assess the coverage capabilities and constraints of 5G.
• Interpret and analyse technical 5G network quality parameters.

5G represents the fifth generation of mobile network technology, facilitating faster data speeds, reduced latency, and more dependable connectivity across a diverse array of applications.

This instructor-led live training, available either online or at your premises, is designed for IT professionals and technical managers at an intermediate level who wish to grasp the fundamentals, architectural framework, and business impact of 5G networks.

Upon completing this training, participants will acquire the knowledge and skills to:

• Comprehend the core concepts and evolution of 5G technology.
• Identify the principal components and architecture of 5G networks.
• Differentiate between 4G LTE and 5G regarding performance and design.
• Evaluate 5G use cases and applications across various industries.
• Assess 5G deployment strategies and regulatory aspects.

Course Format

• Interactive lectures and group discussions.
• Case studies and scenario-based exercises.
• Practical exploration of 5G network architecture through live demonstrations.

Course Customisation Options

• This course can be tailored to focus on specific industry applications or regional 5G deployment contexts, upon request.

6G represents the forthcoming generation of wireless communication standards, poised to revolutionise IoT ecosystems through ultra-fast connectivity, advanced sensing, and integrated AI capabilities.

This instructor-led live training (available online or onsite) is designed for advanced-level participants who wish to understand and leverage the emerging intersection of 6G technologies and IoT applications.

Upon completing this course, learners will be able to:

• Explain the core technical concepts behind 6G.
• Assess how 6G will reshape IoT device communication and architecture.
• Evaluate 6G-enabled IoT use cases across industries.
• Prepare strategies for integrating 6G capabilities into existing IoT solutions.

Format of the Course

• Concept-focused lectures combined with expert discussion.
• Applied exercises designed to reinforce key engineering principles.
• Case-based exploration and scenario analysis in a guided environment.

Course Customization Options

• For tailored versions of this training aligned with your organisational technology roadmap, please contact us to arrange.

Technological advancements and the exponential growth of information are reshaping business operations across numerous sectors, including government. The volume of government data generation and digital archiving is surging, driven by the proliferation of mobile devices and applications, smart sensors and IoT devices, cloud computing solutions, and citizen-facing portals. As digital information becomes more expansive and complex, the management, processing, storage, security, and disposition of this data grow increasingly challenging. New tools for capture, search, discovery, and analysis are enabling organisations to extract valuable insights from unstructured data. The government sector is at a critical juncture, recognising information as a strategic asset. Governments must protect, leverage, and analyse both structured and unstructured data to enhance service delivery and meet mission requirements. As government leaders strive to evolve into data-driven organisations, they are laying the groundwork to correlate dependencies across events, people, processes, and information.

High-value government solutions will emerge from the integration of the most disruptive technologies:

• Mobile devices and applications
• Cloud services
• Social business technologies and networking
• Big Data and analytics

Big Data represents an intelligent industry solution that enables government bodies to make better decisions by acting on patterns revealed through the analysis of large volumes of data—both related and unrelated, structured and unstructured.

However, achieving these feats requires far more than simply accumulating massive quantities of data. "Making sense of these volumes of Big Data requires cutting-edge tools and technologies that can analyse and extract useful knowledge from vast and diverse streams of information," wrote Tom Kalil and Fen Zhao of the White House Office of Science and Technology Policy in a post on the OSTP Blog.

The White House took a significant step toward helping agencies identify these technologies by establishing the National Big Data Research and Development Initiative in 2012. This initiative allocated over $200 million to maximise the potential of the Big Data explosion and the tools required to analyse it.

The challenges posed by Big Data are nearly as daunting as its promise is encouraging. Efficient data storage is one such challenge. With budgets always tight, agencies must minimise the per-megabyte cost of storage while ensuring data remains easily accessible so users can retrieve it when and how they need it. Backing up massive quantities of data further intensifies this challenge.

Effective data analysis presents another major hurdle. Many agencies utilise commercial tools that allow them to sift through mountains of data, identifying trends that enhance operational efficiency. (A recent MeriTalk study found that federal IT executives believe Big Data could help agencies save over $500 billion while also fulfilling mission objectives.)

Custom-developed Big Data tools are also enabling agencies to address their data analysis needs. For instance, the Oak Ridge National Laboratory’s Computational Data Analytics Group has made its Piranha data analytics system available to other agencies. This system has helped medical researchers identify links that can alert doctors to aortic aneurysms before they occur. It is also employed for more routine tasks, such as sifting through resumes to connect job candidates with hiring managers.

This instructor-led, live training in South Africa (online or onsite) is aimed at intermediate-level IT professionals and business managers who wish to understand the potential of IoT and edge computing for enabling efficiency, real-time processing, and innovation in various industries.

By the end of this training, participants will be able to:

• Understand the principles of IoT and edge computing and their role in digital transformation.
• Identify use cases for IoT and edge computing in manufacturing, logistics, and energy sectors.
• Differentiate between edge and cloud computing architectures and deployment scenarios.
• Implement edge computing solutions for predictive maintenance and real-time decision-making.

This instructor-led, live training in South Africa (online or onsite) is aimed at intermediate-level developers, system architects, and industry professionals who wish to leverage Edge AI for enhancing IoT applications with intelligent data processing and analytics capabilities.

By the end of this training, participants will be able to:

• Understand the fundamentals of Edge AI and its application in IoT.
• Set up and configure Edge AI environments for IoT devices.
• Develop and deploy AI models on edge devices for IoT applications.
• Implement real-time data processing and decision-making in IoT systems.
• Integrate Edge AI with various IoT protocols and platforms.
• Address ethical considerations and best practices in Edge AI for IoT.

This instructor-led, live training in South Africa (online or onsite) is aimed at product managers and developers who wish to use Edge Computing to decentralize data management for faster performance, leveraging smart devices located on the source network.

By the end of this training, participants will be able to:

• Understand the basic concepts and advantages of Edge Computing.
• Identify the use cases and examples where Edge Computing can be applied.
• Design and build Edge Computing solutions for faster data processing and reduced operational costs.

Embedded systems are dedicated computing architectures engineered to execute specific tasks within broader ecosystems. The Internet of Things (IoT) refers to a network of physical devices equipped with sensors and software, enabling them to communicate and share data via the internet.

This instructor-led live training, available both online and onsite, is tailored for technical professionals at a beginner level who wish to grasp and apply embedded systems and IoT principles using C programming and microcontroller architectures.

Upon completion of this training, participants will be able to:

• Comprehend the architecture and constituent parts of embedded systems.
• Write and compile C code to facilitate interaction with embedded hardware.
• Operate microcontroller peripherals, including timers and ADCs.
• Appreciate the role of embedded systems within IoT architectures.

Course Format

• Interactive lectures and discussions.
• Extensive exercises and practical application.
• Hands-on implementation within a live laboratory environment.

Customisation Options

• For tailored training needs, please contact us to arrange a bespoke session.

This instructor-led live training in South Africa (online or onsite) is aimed at intermediate-level professionals who wish to apply Federated Learning to optimise IoT and edge computing solutions.

By the end of this training, participants will be able to:

• Grasp the principles and advantages of Federated Learning in IoT and edge computing.
• Deploy Federated Learning models on IoT devices for decentralized AI processing.
• Minimise latency and enhance real-time decision-making in edge computing environments.
• Address challenges concerning data privacy and network constraints in IoT systems.

The Internet of Things (IoT) refers to a network infrastructure that wirelessly connects physical objects and software applications, enabling them to communicate and exchange data through network communications, cloud computing, and data capture. C is a general-purpose programming language often recommended for IoT development due to its widespread use and low-level programming advantages.

In this instructor-led live training, participants will learn how to programme IoT solutions using C.

By the end of this training, participants will be able to:

• Install and configure NetBeans for programming IoT systems with C
• Understand the fundamentals of IoT architecture
• Learn the benefits of using C in programming IoT systems
• Build, test, deploy, and troubleshoot an IoT system using C

Audience

• Developers
• Engineers

Format of the course

• Part lecture, part discussion, exercises and heavy hands-on practice

Note

• To request a customised training for this course, please contact us to arrange.

The Internet of Things (IoT) refers to a network infrastructure that wirelessly links physical objects and software applications, enabling them to communicate and exchange data through network communications, cloud computing, and data capture. Java is a versatile programming language renowned for its 'write once, run anywhere' capability. It is highly recommended for IoT development due to its portability and efficiency.

In this instructor-led live training, participants will learn how to programme IoT solutions using Java.

By the end of this training, participants will be able to:

• Install and configure tools and frameworks (Eclipse Open IoT Stack) for programming IoT systems with Java
• Understand the fundamentals of IoT architecture
• Use the Eclipse Open IoT Stack for Java to connect and manage devices in an IoT solution
• Build, test, and deploy an IoT system using Java

Audience

• Developers
• Engineers

Format of the course

• Part lecture, part discussion, exercises and heavy hands-on practice

Note

• To request a customized training for this course, please contact us to arrange.

Connected devices are disrupting many industries, and the power utility sector is no exception. Power utility companies currently face four primary challenges driven by the growth of the Internet of Things (IoT):

1. Manufacturers of machines, controllers, HMI, and SCADA systems are increasingly connecting their equipment to the cloud, promising enhanced analytics and insights via their data for predictive and preventative maintenance. However, strict quarantine policies governing critical assets prevent power companies from fully utilising these new IoT features offered by machine and controller vendors.
2. As the costs of solar and wind power microgrids continue to decline, utility companies will soon experience a reduction in revenue from traditional power generation. To offset this loss, companies must aggressively pursue new revenue streams, such as offering home energy management as a service, energy storage as a service, grid services for EV charging, and grid services for peer-to-peer (P2P) energy trading between homes, between homes and microgrids, between microgrids, between microgrids and batteries, and between homes and batteries. These services require facilitation through smart metering, smart grids, and secure transactions enabled by distributed ledger technology (DLT) like IOTA. Furthermore, utilities are exploring the provision of smart city services to municipal authorities.
3. For critical infrastructure such as dams, ICOLD (International Committee of Large Dams) mandates real-time Structural Health Monitoring (SHM). This allows for early warning of potential collapse risks in dams, rock formations, or tunnels, enabling the timely evacuation of people in affected areas.
4. Additionally, EV charging in parking facilities represents an emerging revenue area. The question remains: how can IoT facilitate smart charging and smart parking solutions?

Over the past three years, engineering within the IoT domain has undergone massive changes, primarily driven by tech giants like Microsoft, Google, and Amazon. These industry behemoths have invested billions of dollars to develop IoT platforms that are easier to manage and more secure. Furthermore, IoT edge computing has gained significant momentum in both research and deployment as the primary method for practical IoT implementation. The advent of 5G promises to transform the IoT business landscape, leading to unprecedented funding for new areas of IoT research. Consequently, for any practising engineer, it is absolutely essential to understand the IoT platforms developed for major players such as AWS, Google, and particularly Microsoft.

However, none of the aforementioned platforms offer an exhaustive or entirely comprehensive solution for scalable IoT. For instance, deploying smart metering to millions of homes requires additional technologies to secure the smart meters, radio networks, IoT management technology, and many other secured services. The strategy, pricing, and security of any IoT deployment must be optimal and acceptable. Given the vast amount of interdisciplinary knowledge required, it is almost impossible for any company to assemble a team capable of meeting all these requirements.

This course is a modest attempt to educate key decision-makers, developers, and security experts on the challenges, risks, and practical approaches to deploying IoT for their next-generation power utility business.

Furthermore, with scalable deployments, managing IoT services for thousands of sensors and connections is emerging as a separate field of engineering research. This area, formerly known as managed IoT services, is experiencing rapid growth as the challenges for scalable IoT are far greater than merely building them. This includes securing over-the-top firmware/software updates, managing sensor and system calibration, auto-diagnosing connection issues, identifying the root cause of API failures, and tracking the hardware and service health of distributed systems.

Course objectives

The main objective of the course is to introduce emerging technological options, platforms, and case studies of IoT implementation in Power Utility Companies, including Smart Metering, Smart Cars, SHM (Structural Health Monitoring), Power Quality Diagnosis, and Smart Contracts. Participants will receive a basic introduction to all IoT elements: Mechanical, Electronics/sensor platforms, Wireless and wireline protocols, Mobile to Electronics integration, Mobile to enterprise integration, Data-analytics, and control plane applications.

1. IoT Technology Stacks: Devices, Gateways, Edge, Edge Cloud, Public Cloud, IoT databases, Web & Mobile Applications for IoT, Centralized vs Decentralized IoT
2. IoT ecosystem for Business, third-party device management, and risk management of the entire IoT ecosystem
3. M2M Wireless protocols for IoT: WiFi, SigFox, LORA, LPWAN, Zigbee/Zwave, Bluetooth, ANT+: When and where to use each one
4. Fundamentals of IoT Gateways: Risks, Management, and Ecosystem
5. Mobile/Desktop/Web apps for registration, data acquisition, and control – Available M2M data acquisition platforms for IoT: AWS IoT, Azure IoT, Google IoT
6. Security issues and solutions for IoT: A review of the security of all technology stacks
7. Enterprise IoT platforms such as Microsoft Azure IoT suites, AWS IoT, Google IoT, Siemens MindSphere
8. Smart Metering, Open Smart Grid Protocols (OSGP), ANSI C2.18 Protocols, NIST Standard for HAN (Home Area Network), Home Plug Powerline Alliance, Security Standard for Smart Meter: IEC 62056
9. Distributed Ledger Technology (DLT) such as Blockchain, HyperLedger, and DAG (Directed Acyclic Graph) for smart contracts, P2P transactions, and smart car charging
10. IoT for critical infrastructure like Dams, Transformers, Sub-stations, and High Tension Wires

This instructor-led, live training (online or onsite) is aimed at beginner-level and intermediate-level telecom engineers and field professionals who wish to use structured deployment methodologies and industry best practices to successfully install, supervise, integrate, and manage multi-vendor wireless networks from 2G to 5G across operator and enterprise environments.

By the end of this training, participants will be able to:

• Install and configure multi-vendor BTS systems (Huawei, ZTE, Ericsson) from 2G to 5G.
• Supervise site deployment activities and coordinate RF, transmission, power, civil, and core network teams during integration.
• Prepare telecom sites for ATP (Acceptance Test Procedure) and manage operator handover processes.
• Monitor wireless KPIs and manage cluster-based and region-based network operations within commercial and technical reporting structures.