
IoT Wireless and Cloud Computing Course
Master the full IoT stack — from wireless protocols and cloud platforms to edge computing and machine learning integration. This course equips engineers and architects with the hands-on skills to design, secure, and scale production-grade IoT systems. Whether you're connecting sensors or optimizing cloud data pipelines, every concept maps directly to real-world deployments.
What you will learn:
Configure MQTT, CoAP, and AMQP protocols for reliable, secure IoT data transport.
Design cloud ingestion pipelines that handle high-throughput telemetry at enterprise scale.
Implement end-to-end IoT security across device, network, and cloud layers using proven frameworks.
Deploy edge computing modules that reduce latency and cut cloud bandwidth costs significantly.
Apply machine learning models for anomaly detection and predictive maintenance on IoT data.
Evaluate LPWAN, 5G, and short-range wireless technologies against real deployment requirements.
How you study in practice IoT Wireless and Cloud Computing Course
How you practise IoT Wireless and Cloud Computing Course
For companies looking to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of IoT and Wireless Systems
Foundations of IoT and Wireless Systems
Lesson 1 • IoT Data Flow and Message Patterns
Explains publish-subscribe, request-response, and streaming data patterns. Sets the stage for cloud ingestion and protocol selection in later chapters.
Lesson 2 • Wireless Communication Fundamentals
Covers radio frequency basics, signal propagation, and modulation schemes. Provides the physical-layer knowledge needed to evaluate wireless protocols.
Lesson 3 • IoT Architecture and Ecosystem Overview
Defines the layered IoT stack from perception to application. Grounds subsequent wireless and cloud topics in a unified system model.
Lesson 4 • Low-Power Wide-Area Network Protocols
Introduces LoRaWAN, Sigfox, and NB-IoT for long-range, low-power deployments. Connects protocol trade-offs to battery life and coverage planning.
Lesson 5 • Short-Range Wireless Technologies
Examines Bluetooth, Zigbee, Z-Wave, and Wi-Fi for local IoT connectivity. Enables protocol selection based on range, power, and throughput requirements.
Chapter 2HideHide detailsSee detailsIoT Communication Protocols in Depth
IoT Communication Protocols in Depth
Lesson 1 • CoAP for Constrained Devices
Covers CoAP request methods, observe mode, and block-wise transfers. Addresses resource-limited devices where MQTT overhead is prohibitive.
Lesson 2 • AMQP and Advanced Messaging Patterns
Examines AMQP exchanges, queues, and routing keys for enterprise IoT pipelines. Bridges device messaging to backend analytics systems.
Lesson 3 • MQTT Protocol Design and Operation
Details MQTT broker architecture, QoS levels, and topic hierarchies. Directly enables cloud broker integration covered in later chapters.
Lesson 4 • Protocol Security and Authentication
Applies TLS, certificate-based auth, and token schemes to IoT protocols. Establishes secure communication practices before cloud deployment.
Lesson 5 • Protocol Selection and Benchmarking
Provides a decision framework comparing latency, overhead, and reliability across protocols. Prepares students to justify protocol choices in system design.
Chapter 3HideHide detailsSee detailsCloud Computing Fundamentals for IoT
Cloud Computing Fundamentals for IoT
Lesson 1 • Virtualization and Containerization Basics
Introduces VMs, containers, and orchestration concepts underpinning cloud IoT services. Prepares students for deploying microservices in later chapters.
Lesson 2 • Cloud Storage Options for IoT Data
Compares object, block, file, and time-series storage for IoT telemetry. Guides storage selection based on query patterns and retention needs.
Lesson 3 • Cloud Cost Management and Optimization
Explains pricing models, reserved capacity, and cost monitoring tools. Enables students to design cost-efficient IoT cloud architectures.
Lesson 4 • Cloud Service Models Explained
Distinguishes IaaS, PaaS, and SaaS and their relevance to IoT workloads. Anchors cloud decision-making for device management and analytics chapters.
Lesson 5 • Cloud Deployment and Networking Models
Covers public, private, hybrid, and multi-cloud architectures for IoT. Connects deployment choice to latency, compliance, and cost requirements.
Chapter 4HideHide detailsSee detailsIoT Cloud Platforms and Device Management
IoT Cloud Platforms and Device Management
Lesson 1 • Device Monitoring and Health Management
Implements connectivity monitoring, heartbeat detection, and alert routing. Connects device health data to cloud dashboards and incident workflows.
Lesson 2 • IoT Platform Architecture Overview
Maps the functional components of cloud IoT platforms including hubs, registries, and rules engines. Frames the hands-on platform work in subsequent sections.
Lesson 3 • Device Provisioning and Onboarding
Covers zero-touch provisioning, enrollment groups, and attestation mechanisms. Reduces manual onboarding effort for large-scale IoT deployments.
Lesson 4 • Over-the-Air Firmware Update Management
Designs OTA update pipelines including delta updates, rollback, and deployment groups. Ensures fleet reliability and security patch delivery at scale.
Lesson 5 • Device Twins and Shadow State
Explains desired, reported, and metadata properties in device twin models. Enables remote configuration and state synchronization without direct device connections.
Chapter 5HideHide detailsSee detailsIoT Data Ingestion and Stream Processing
IoT Data Ingestion and Stream Processing
Lesson 1 • Batch and Lambda Architecture Integration
Combines real-time stream and batch processing layers for complete IoT analytics. Prepares students for advanced analytics and machine learning integration.
Lesson 2 • Stream Processing Fundamentals
Introduces windowing, aggregation, and stateful processing for real-time IoT data. Enables anomaly detection and alerting without batch delays.
Lesson 3 • Message Enrichment and Transformation
Applies schema validation, unit conversion, and reference data lookups to raw telemetry. Produces clean, contextualized data for analytics and storage.
Lesson 4 • High-Throughput Data Ingestion Patterns
Covers event hub architectures, partitioning, and consumer groups for IoT scale. Establishes the ingestion layer that feeds all downstream processing.
Lesson 5 • Data Routing and Fan-Out Patterns
Configures rules-based routing to multiple sinks including storage, dashboards, and ML pipelines. Decouples producers from consumers for flexible architecture.
Chapter 6HideHide detailsSee detailsIoT Security Architecture and Implementation
IoT Security Architecture and Implementation
Lesson 1 • Device-Level Security Controls
Implements secure boot, hardware security modules, and firmware signing on IoT devices. Prevents unauthorized code execution and physical tampering.
Lesson 2 • Identity and Access Management for IoT
Designs device identity lifecycle, role-based access, and least-privilege policies. Ensures only authorized entities interact with devices and cloud services.
Lesson 3 • Network Security for IoT Deployments
Configures network segmentation, VPNs, and intrusion detection for IoT traffic. Isolates device networks from enterprise systems to limit breach impact.
Lesson 4 • IoT Threat Modeling and Risk Assessment
Applies STRIDE and attack surface analysis to IoT system components. Produces a prioritized risk register that guides security control selection.
Lesson 5 • Security Monitoring and Incident Response
Builds IoT-specific SIEM rules, anomaly detection, and incident playbooks. Closes the security loop from detection through containment and recovery.
Chapter 7HideHide detailsSee detailsEdge Computing and Fog Architecture
Edge Computing and Fog Architecture
Lesson 1 • Edge-to-Cloud Synchronization
Designs store-and-forward, conflict resolution, and data reconciliation between edge and cloud. Maintains data consistency across intermittent connectivity scenarios.
Lesson 2 • Fog Computing and Hierarchical Architectures
Extends edge concepts to multi-tier fog nodes aggregating data from multiple edge sites. Prepares students for large-scale industrial and smart-city deployments.
Lesson 3 • Edge Computing Concepts and Drivers
Defines edge computing benefits including latency reduction, bandwidth savings, and offline resilience. Positions edge as a complement to cloud in the IoT architecture.
Lesson 4 • Local Data Processing and Filtering
Implements local stream processing, aggregation, and anomaly detection at the edge. Reduces cloud ingestion costs by sending only relevant data upstream.
Lesson 5 • Edge Runtime and Module Deployment
Configures edge runtimes to deploy containerized modules for local processing. Enables remote module management and version control from the cloud.
Chapter 8HideHide detailsSee detailsIoT Analytics, ML Integration, and System Design
IoT Analytics, ML Integration, and System Design
Lesson 1 • IoT Analytics Patterns and Dashboards
Builds real-time and historical dashboards using time-series queries and visualization tools. Translates raw telemetry into actionable operational insights.
Lesson 2 • ML Model Deployment at Edge and Cloud
Deploys trained models as edge modules and cloud inference endpoints. Balances inference latency, cost, and accuracy across deployment targets.
Lesson 3 • End-to-End IoT System Design
Applies architecture patterns including reliability, scalability, and observability to full IoT solutions. Integrates all prior chapter skills into a cohesive design process.
Lesson 4 • Performance Tuning and Continuous Improvement
Profiles end-to-end latency, throughput bottlenecks, and cost inefficiencies in live systems. Establishes feedback loops for ongoing system optimization.
Lesson 5 • Machine Learning for IoT Use Cases
Applies anomaly detection, predictive maintenance, and classification models to IoT data. Connects ML outputs to automated actuation and alerting workflows.
Your valid completion certificate
This course is for you:
Embedded or firmware engineer: ready to extend skills into cloud-connected system design.
Cloud developer: looking to add IoT device management to their existing platform expertise.
Network engineer: wanting to understand how wireless IoT protocols fit modern architectures.
Solutions architect: needing a structured IoT framework to support client deployment decisions.
Career changer from IT operations: motivated to move into the growing IoT engineering field.
Hardware hobbyist: ready to take connected-device projects to a professional, scalable level.
What our students say
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