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Quest Training

IoT Connectivity: NB-IoT, LTE-M & LoRaWAN Training Course

Compares NB-IoT, LTE-M and LoRaWAN, their capabilities, limits and deployment factors, to help choose reliable, low-power connectivity for IoT projects.

IOTC · IoT, M2M & Connected TechnologiesAll Levels#2785ClassroomEnglish , Arabic
Duration
5 Days
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Free substitution at any time · 30+ days' notice: full refund minus 10%. Cancellation policy

Sectors:Telecommunications & Satellite TechnologyCategories:IoT, M2M & Connected Technologies

Course Overview

The IoT Connectivity: NB-IoT, LTE-M & LoRaWAN Training Course provides a focused understanding of the connectivity technologies that enable reliable, energy-efficient communication between connected devices and IoT platforms. It examines the capabilities, limitations, and deployment considerations of Narrowband Internet of Things (NB-IoT), LTE for Machines (LTE-M), and LoRaWAN, with an emphasis on selecting the right technology for specific operational and business requirements. Participants explore the technical principles of cellular and low-power wide-area network (LPWAN) technologies, including network architecture, coverage, bandwidth, latency, power consumption, device mobility, and communication reliability. The course explains how these characteristics influence the performance of sensors, smart meters, tracking devices, industrial monitoring systems, and other connected applications. The programme also addresses device provisioning, network integration, data transmission, coverage planning, connectivity costs, and interoperability. Participants learn to evaluate deployment options, understand the differences between operator-managed cellular networks and LoRaWAN deployments, and assess how connectivity choices affect battery life, service availability, scalability, and total cost of ownership. Through practical exercises and technical scenarios, participants develop the ability to compare NB-IoT, LTE-M, and LoRaWAN against real-world requirements, identify connectivity risks, and prepare an initial deployment strategy. The course also covers security considerations, network performance monitoring, troubleshooting, and the integration of connectivity technologies into broader IoT architectures.

Learning Objectives

  • Explain the operating principles and technical characteristics of NB-IoT, LTE-M, and LoRaWAN.
  • Compare cellular IoT technologies with LPWAN connectivity approaches.
  • Evaluate coverage, bandwidth, latency, power consumption, mobility, and reliability requirements.
  • Understand the network architecture and communication mechanisms of each technology.
  • Identify suitable connectivity options for industrial, commercial, and smart infrastructure applications.
  • Assess device requirements, SIM or eSIM provisioning, gateways, network access, and deployment dependencies.
  • Evaluate connectivity costs, infrastructure requirements, and total cost of ownership.
  • Understand the implications of licensed and unlicensed spectrum for IoT connectivity.
  • Identify security, interoperability, scalability, and service availability considerations.
  • Apply structured methods to select connectivity technologies based on application requirements.
  • Recognize common connectivity problems and apply systematic troubleshooting approaches.
  • Develop a preliminary connectivity architecture and deployment plan for an IoT use case.

Who Should Attend

This course is designed for professionals responsible for IoT connectivity, telecommunications, industrial communications, connected devices, and digital infrastructure. It is suitable for organizations deploying or evaluating low-power connected solutions across industrial facilities, utilities, transportation, smart cities, logistics, and remote monitoring environments. Suitable participants include: IoT engineers and solution architects. Telecommunications and mobile network professionals. Network engineers and connectivity specialists. Industrial automation and instrumentation engineers. Embedded systems and connected-device developers. Digital transformation and technology managers. Smart metering and utility technology professionals. Asset tracking, fleet management, and logistics specialists. Industrial maintenance and remote monitoring professionals. Technical project managers and IoT implementation teams. Professionals responsible for evaluating IoT connectivity providers and deployment models.

Learning Outcomes

  • Explain the architecture and communication principles of NB-IoT, LTE-M, and LoRaWAN.
  • Distinguish between cellular IoT connectivity and LoRaWAN-based deployments.
  • Compare technologies using coverage, data rate, latency, energy consumption, mobility, and cost.
  • Identify the connectivity requirements of different sensors, meters, trackers, and industrial devices.
  • Evaluate the implications of licensed and unlicensed spectrum for network deployment.
  • Explain the roles of cellular operators, LoRaWAN gateways, network servers, and application platforms.
  • Assess device provisioning, network access, coverage, and integration requirements.
  • Identify security and interoperability risks associated with IoT connectivity.
  • Develop a connectivity selection matrix for a defined operational scenario.
  • Diagnose common communication and coverage problems using structured troubleshooting methods.
  • Evaluate connectivity costs and operational requirements over the expected device lifecycle.
  • Prepare a preliminary IoT connectivity design and implementation roadmap.

Course Outline

Day 1

IoT Connectivity Fundamentals and LPWAN Architecture

  • The role of connectivity in IoT systems and connected-device architectures.
  • Understanding low-power wide-area networks (LPWAN) and their role in large-scale deployments.
  • Key connectivity parameters: coverage, data rate, latency, power consumption, reliability, and device density.
  • Differences between short-range, local-area, cellular, and LPWAN technologies.
  • Introduction to cellular IoT and the evolution of mobile networks for connected devices.
  • Understanding licensed and unlicensed spectrum and their operational implications.
  • Overview of NB-IoT, LTE-M, and LoRaWAN use cases and deployment models.
  • Device-to-network, device-to-gateway, and device-to-platform communication patterns.
  • Understanding uplink and downlink communication requirements.
  • Evaluating application requirements for periodic reporting, event-driven messaging, and remote control.
  • Identifying connectivity constraints in buildings, industrial facilities, underground locations, and remote sites.
  • Establishing a requirements framework for selecting an IoT connectivity technology.
  • Practical Exercise: Analyse three IoT use cases and define their connectivity requirements, including message frequency, payload size, coverage, battery life, latency, mobility, and expected device density.
Day 2

NB-IoT and LTE-M Technologies and Deployment Considerations

  • Technical overview of Narrowband Internet of Things (NB-IoT) and LTE for Machines (LTE-M).
  • Understanding cellular IoT architecture, radio access networks, and operator-managed connectivity.
  • Key differences between NB-IoT and LTE-M in data rates, latency, mobility, and application suitability.
  • Coverage characteristics and penetration considerations for indoor and challenging environments.
  • Power-saving mechanisms, including Power Saving Mode (PSM) and extended Discontinuous Reception (eDRX).
  • Understanding device sleep cycles, reporting intervals, and their effects on battery life.
  • Mobility, roaming, and handover considerations for tracking and moving assets.
  • SIM and eSIM provisioning, subscription management, and network access requirements.
  • Evaluating operator coverage, service availability, and deployment dependencies.
  • Understanding data transmission, application integration, and cellular connectivity management.
  • Assessing limitations related to network availability, regional support, device certification, and commercial agreements.
  • Selecting between NB-IoT and LTE-M for smart metering, asset monitoring, tracking, and industrial applications.
  • Practical Exercise: Compare NB-IoT and LTE-M for a smart metering application and a mobile asset-tracking scenario, documenting coverage needs, mobility, latency, power requirements, service dependencies, and the preferred connectivity option for each case.
Day 3

LoRaWAN Architecture, Network Design, and Device Management

  • Introduction to LoRa and LoRaWAN and the distinction between the radio modulation technology and the network protocol.
  • Understanding LoRaWAN architecture: end devices, gateways, network servers, and application servers.
  • Star-of-stars network topology and communication between end devices and gateways.
  • LoRaWAN device classes (Class A, Class B, and Class C) and their communication characteristics.
  • Understanding uplink and downlink limitations and their implications for application design.
  • Regional frequency plans, duty-cycle requirements, and regulatory considerations.
  • Spreading factors, data rates, airtime, and their impact on network capacity and battery consumption.
  • Gateway placement, antenna considerations, propagation, and coverage planning.
  • Device activation methods, including Over-the-Air Activation (OTAA) and Activation by Personalization (ABP).
  • Network server functions, device registration, message routing, and application integration.
  • Planning LoRaWAN deployments for campuses, industrial sites, utilities, agriculture, and smart buildings.
  • Understanding scalability constraints, gateway density, interference, and network capacity management.
  • Practical Exercise: Design a preliminary LoRaWAN deployment for a selected site, identifying end devices, gateway locations, coverage assumptions, reporting intervals, device classes, activation methods, and expected network capacity requirements.
Day 4

Connectivity Selection, Security, Integration, and Troubleshooting

  • Comparing NB-IoT, LTE-M, and LoRaWAN across coverage, throughput, latency, mobility, power consumption, and operational control.
  • Matching connectivity technologies to application requirements and environmental conditions.
  • Evaluating device cost, connectivity fees, infrastructure investment, maintenance, and total cost of ownership.
  • Understanding security considerations in cellular IoT and LoRaWAN deployments.
  • Device identity, authentication, encryption, key management, and secure provisioning.
  • Evaluating network availability, service-level requirements, and resilience options.
  • Integrating connectivity layers with IoT gateways, cloud platforms, device management systems, and business applications.
  • Understanding data formats, messaging interfaces, and application-level protocols used above the connectivity layer.
  • Diagnosing weak coverage, intermittent communication, packet loss, excessive latency, and battery drain.
  • Reviewing signal measurements, device logs, gateway statistics, and operator network information.
  • Identifying interference, antenna placement, configuration, and provisioning issues.
  • Developing troubleshooting procedures and escalation paths for connectivity incidents.
  • Practical Exercise: Evaluate a connectivity failure scenario involving intermittent messages and reduced battery life, identify likely causes, and prepare a troubleshooting plan covering device configuration, radio conditions, network availability, provisioning, and application integration.
Day 5

Connectivity Architecture, Cost Evaluation, and Deployment Planning

  • Translating operational requirements into a complete IoT connectivity architecture.
  • Selecting technologies for fixed sensors, smart meters, mobile assets, remote infrastructure, and industrial monitoring.
  • Defining device quantities, message frequency, payload sizes, reporting intervals, and service expectations.
  • Assessing coverage requirements and validating network availability before deployment.
  • Evaluating cellular subscription costs, gateway requirements, infrastructure investment, and ongoing support.
  • Estimating device energy consumption and expected battery replacement intervals.
  • Comparing total cost of ownership across NB-IoT, LTE-M, and LoRaWAN deployment options.
  • Planning proof-of-concept projects and field tests before large-scale rollout.
  • Defining technical acceptance criteria and key performance indicators (KPIs) for coverage, delivery success, latency, energy consumption, and availability.
  • Establishing monitoring, maintenance, firmware update, and device lifecycle management procedures.
  • Identifying deployment risks involving coverage gaps, regional technology availability, interoperability, and supplier dependency.
  • Preparing implementation phases, stakeholder responsibilities, operational support requirements, and scale-up recommendations.
  • Practical Exercise: Develop a connectivity recommendation and preliminary deployment plan for an IoT project, including a technology comparison matrix, proposed architecture, coverage validation approach, estimated cost categories, security requirements, performance indicators, pilot activities, and expansion criteria.

Upcoming Dates

CityDatesPrice per ParticipantEarly Bird
RiyadhScheduled
2 – 6 Nov 2026€4,800—
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RomeScheduled
9 – 13 Nov 2026€7,000—
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ViennaScheduled
9 – 13 Nov 2026€6,400—
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AbujaScheduled
16 – 20 Nov 2026€7,700—
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AccraScheduled
23 – 27 Nov 2026€7,700€6,930until 2 Nov
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AmmanScheduled
29 Nov – 3 Dec 2026€4,000€3,600until 9 Nov
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AmsterdamScheduled
7 – 11 Dec 2026€6,000€5,400until 16 Nov
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BakuScheduled
14 – 18 Dec 2026€5,300€4,770until 23 Nov
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BarcelonaScheduled
21 – 25 Dec 2026€6,000€5,400until 30 Nov
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CairoScheduled
28 Dec 2026 – 1 Jan 2027€3,800€3,420until 7 Dec
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Cape TownScheduled
28 Dec 2026 – 1 Jan 2027€7,700€6,930until 7 Dec
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CasablancaScheduled
4 – 8 Jan 2027€4,700€4,230until 14 Dec
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DammamScheduled
11 – 15 Jan 2027€4,800€4,320until 21 Dec
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DohaScheduled
18 – 22 Jan 2027€4,700€4,230until 28 Dec
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DubaiScheduled
24 – 28 Jan 2027€4,700€4,230until 4 Jan
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GenevaScheduled
1 – 5 Feb 2027€7,300€6,570until 11 Jan
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IstanbulScheduled
8 – 12 Feb 2027€5,300€4,770until 18 Jan
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JeddahScheduled
14 – 18 Feb 2027€4,800€4,320until 25 Jan
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KigaliScheduled
15 – 19 Feb 2027€7,700€6,930until 25 Jan
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Kuala LumpurScheduled
22 – 26 Feb 2027€4,700€4,230until 1 Feb
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LisbonScheduled
1 – 5 Mar 2027€6,000€5,400until 8 Feb
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LondonScheduled
8 – 12 Mar 2027€5,800€5,220until 15 Feb
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MadinahScheduled
15 – 19 Mar 2027€4,800€4,320until 22 Feb
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MadridScheduled
22 – 26 Mar 2027€6,000€5,400until 1 Mar
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ManamaScheduled
29 Mar – 2 Apr 2027€5,300€4,770until 8 Mar
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MakkahScheduled
29 Mar – 2 Apr 2027€4,800€4,320until 8 Mar
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MilanScheduled
5 – 9 Apr 2027€7,000€6,300until 15 Mar
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MuscatScheduled
12 – 16 Apr 2027€6,300€5,670until 22 Mar
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OnlineScheduled
18 – 22 Apr 2027€2,700€2,430until 29 Mar
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ParisScheduled
26 – 30 Apr 2027€6,700€6,030until 5 Apr
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Available in: Istanbul · Dubai · London · Riyadh · Doha · Amsterdam

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