Industry 4.0 Digital Transformation Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Manufacturing Transformation Managers, Operations Managers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-DT-048

Before you join: Participants should have practical familiarity with manufacturing operations, industrial engineering, IT, automation, quality, maintenance or business improvement.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Manufacturers are under pressure to improve throughput, quality, traceability, energy use and maintenance performance while managing ageing assets, fragmented data and rising cyber risk. Industry 4.0 programmes can address these issues, but many initiatives stall between promising pilots and plant-wide adoption. Common causes include unclear value cases, poor IT/OT integration, weak data ownership, supplier dependency and insufficient workforce adoption planning.

This course gives participants a structured method for designing and delivering manufacturing digital transformation initiatives. It covers maturity assessment, use-case selection, value-stream mapping, data governance, ISA-95 integration, IIoT connectivity, edge and cloud architecture, cybersecurity, digital twins, analytics, automation, MES requirements and benefits realisation. Participants learn to connect operational priorities such as OEE, first-pass yield, asset reliability and schedule adherence to technology decisions, delivery plans and investment cases.

Instruction combines short technical briefings with manufacturing cases, facilitated analysis, group design work, simulations and individual application planning. Participants build practical work from the first week, progressively developing a transformation charter, target architecture, prioritised use-case backlog, delivery roadmap and governance model. The course concludes with a capstone presentation of a complete Industry 4.0 transformation proposal. Participants receive a certificate of completion after attending the instructor-led 10-day programme, delivered in classrooms in 50+ cities or live online.

The course is suited to managers and specialists responsible for manufacturing operations, engineering, IT, data, automation, quality, maintenance and transformation portfolios. It is particularly relevant where plants need to move from isolated digital projects towards a governed, repeatable implementation model.

What you will be able to do

  • Assess manufacturing digital maturity using capability scores, KPI baselines and gap analysis
  • Map production processes and information flows using BPMN 2.0 and value-stream mapping
  • Design an Industry 4.0 target architecture using RAMI 4.0, ISA-95 and integration patterns
  • Specify IIoT, data, edge and cloud requirements for a manufacturing use case
  • Build a prioritised use-case portfolio, benefits case and transformation roadmap
  • Evaluate cybersecurity risks using IEC 62443 zones, conduits and threat modelling
  • Govern digital transformation delivery through stage gates, RACI matrices and benefits tracking
  • Present a complete manufacturing digital transformation proposal to executive stakeholders

Benefits of attending

For you

  • Produce credible Industry 4.0 business cases linked to plant performance measures
  • Communicate effectively with operations, engineering, IT, cybersecurity and vendors
  • Assess whether a digital use case is ready for pilot, investment or scale-up
  • Specify manufacturing data, integration and security requirements with greater confidence
  • Lead structured transformation discussions with plant and executive stakeholders

For your organisation

  • Prioritise digital investments against measurable operational and financial benefits
  • Reduce disconnected pilots by applying common architecture and governance standards
  • Improve IT/OT alignment across production, engineering, quality and enterprise systems
  • Strengthen industrial cybersecurity planning before introducing connected technologies
  • Create repeatable methods for replicating successful plant solutions across sites

Course modules

20 modules over 10 days

Participants can relate Industry 4.0 technologies to measurable manufacturing performance priorities.

  • Industry 4.0 value drivers: quality, throughput, energy, maintenance and safety
  • Digital transformation scope from sensor signals to customer commitments
  • Discrete, process and hybrid manufacturing operating-model differences and requirements
  • Cyber-physical systems, IIoT, analytics and automation relationships mapped
  • Value-stream mapping identifies information delays, rework loops and manual handoffs
  • Baseline measures for OEE, first-pass yield and schedule adherence

Participants can assess digital maturity and prioritise initiatives using value, feasibility and dependency criteria.

  • Digital maturity assessment scores strategy, processes, technology, data and people
  • Gap analysis separates current capability from target operating requirements
  • KPI trees link plant metrics to margin, service and risk
  • Prioritisation matrix scores value, feasibility, urgency and dependency
  • Use-case portfolio distinguishes quick wins from platform investments
  • Benefits hypotheses assign owners, measures, baselines and review dates

Participants can frame manufacturing problems as testable digital products and use cases.

  • Problem statements define users, decisions, constraints and measurable outcomes
  • Design thinking interviews expose operator pain points and workarounds
  • Jobs-to-be-done frames digital services around operational progress
  • Value proposition canvas tests gains, pains and required capabilities
  • User stories specify acceptance criteria for shop-floor digital products
  • Product backlog ordering uses cost of delay and dependencies

Participants can map current and future processes to identify digital intervention points.

  • BPMN 2.0 maps production, quality and maintenance decision flows
  • Current-state value-stream maps quantify queues, waiting and information latency
  • Future-state design removes non-value-added approvals and duplicate data entry
  • Process mining event logs reveal variants, bottlenecks and conformance gaps
  • Standard work documents digital handoffs, exceptions and escalation rules
  • Control plans connect critical parameters, limits, responses and records

Participants can define ownership, quality and lifecycle controls for manufacturing data.

  • Data product ownership assigns accountable business stewards and technical custodians
  • Master data management reconciles asset, material, batch and supplier identifiers
  • Data quality rules test completeness, validity, timeliness, consistency and uniqueness
  • ISA-95 data objects link enterprise, operations and control systems
  • Data lineage traces sensor values through models, dashboards and decisions
  • Retention schedules classify production records, audit evidence and personal data

Participants can design a target architecture for integrated manufacturing digital services.

  • Reference architectures distinguish edge, platform, application and enterprise layers
  • RAMI 4.0 locates assets across hierarchy levels and lifecycle stages
  • ISA-95 integration patterns separate MES, ERP, SCADA and PLC responsibilities
  • API contracts define payloads, authentication, versioning and error handling
  • Event-driven architecture distributes production events without point-to-point interfaces
  • Architecture decision records document trade-offs, assumptions and approved standards

Participants can specify secure, reliable connectivity for manufacturing assets and applications.

  • OPC UA information models standardise machine data and semantics
  • MQTT publish-subscribe patterns connect constrained devices and broker services
  • Network segmentation separates enterprise, industrial DMZ and control zones
  • Latency budgets determine edge processing, buffering and cloud synchronisation
  • Asset discovery records firmware, protocols, ports and communication paths
  • Condition monitoring signals require sampling rates, thresholds and contextual tags

Participants can identify and address cybersecurity risks within Industry 4.0 initiatives.

  • IEC 62443 zones and conduits structure industrial security requirements
  • Threat modelling identifies attack paths through people, processes and technology
  • Zero-trust access applies least privilege, identity verification and session controls
  • Patch governance balances vulnerability remediation against production availability windows
  • Incident response playbooks assign containment, recovery, communications and evidence tasks
  • Supplier security assessments test remote access, update practices and notification duties

Participants can make workload placement and platform design decisions for manufacturing applications.

  • Edge computing filters signals, executes controls and preserves local continuity
  • Cloud service models allocate responsibilities for infrastructure, platforms and software
  • Workload placement compares latency, resilience, data sovereignty and operating cost
  • Containerised applications package services, dependencies, configuration and deployment versions
  • Data pipelines ingest streaming, batch and historian records reliably
  • Observability monitors availability, latency, errors, saturation and data freshness

Participants can define an IIoT solution from sensor selection through operational acceptance.

  • IIoT solution design links sensors, gateways, platforms and business applications
  • Sensor selection considers range, accuracy, ingress protection and calibration needs
  • Gateway configuration manages protocol conversion, buffering and certificate rotation
  • Device lifecycle management covers provisioning, monitoring, updates and retirement
  • Telemetry schemas include timestamps, units, asset context and quality flags
  • Pilot acceptance criteria test connectivity, data integrity and operator usability

Participants can select, validate and govern analytics use cases for plant decisions.

  • Descriptive analytics explains losses through Pareto charts and stratification
  • Statistical process control distinguishes common-cause from special-cause variation
  • Feature engineering combines process conditions, material batches and maintenance history
  • Supervised learning predicts defects, demand or remaining useful life
  • Model validation tests precision, recall, calibration and operational usefulness
  • MLOps controls model versioning, monitoring, retraining and approval workflows

Participants can define and validate digital twin use cases for operational decisions.

  • Digital twin scope defines physical asset, model fidelity and decision purpose
  • Physics-based models represent energy balances, motion or process dynamics
  • Data-driven twins learn equipment behaviour from historical operating records
  • Simulation experiments compare scheduling, capacity and parameter-change scenarios
  • Model calibration aligns simulated outputs with measured production results
  • Validation criteria establish acceptable error bounds and operating assumptions

Participants can assess automation opportunities while addressing safety and workforce requirements.

  • Automation opportunity assessment separates augmentation, control automation and autonomous operation
  • Collaborative robot risk assessment addresses safeguarding, speed and workspace limits
  • Machine vision inspection specifies lighting, optics, labels and defect classes
  • Automated guided vehicle workflows define routes, priorities and exception handling
  • Human factors design prevents alarm overload, ambiguity and unsafe workarounds
  • Functional safety boundaries identify independent protection layers and proof tests

Participants can define digital execution requirements for production, quality and traceability.

  • MES requirements connect dispatching, genealogy, quality, labour and performance records
  • Electronic batch records enforce sequence, signatures, exceptions and review
  • Finite scheduling uses constraints, changeovers, capacity and material availability
  • Traceability design links serialisation, lot genealogy and quality disposition
  • Andon workflows route abnormalities to defined response owners and timers
  • OEE loss trees distinguish availability, performance and quality losses

Participants can create investment cases and benefits plans for digital transformation initiatives.

  • Business cases quantify cash flows, capital expenditure, operating costs and risks
  • Net present value compares transformation investments using discounted cash flows
  • Total cost of ownership includes integration, support, cybersecurity and upgrades
  • Benefits realisation plans assign measures, owners, baselines and review cadence
  • Stage-gate governance releases funding against evidence and decision criteria
  • Sensitivity analysis tests adoption, throughput, cost and schedule assumptions

Participants can establish delivery controls for cross-functional manufacturing transformation programmes.

  • Agile delivery defines product increments, sprint goals and review evidence
  • Hybrid project governance coordinates engineering milestones, releases and operational readiness
  • RACI matrices clarify sponsor, product owner, plant and vendor accountabilities
  • Risk registers track technical, operational, commercial and safety exposures
  • Change control evaluates scope, architecture, validation and budget impacts
  • Vendor statements of work specify deliverables, acceptance and service levels

Participants can plan workforce adoption and operating model changes required by digital initiatives.

  • Stakeholder mapping identifies affected roles, influence, concerns and communication needs
  • ADKAR planning addresses awareness, desire, knowledge, ability and reinforcement
  • Role-based training plans align competencies with changed work procedures
  • Digital adoption metrics measure usage, proficiency, workarounds and resistance
  • Works council and union engagement addresses workforce data and job redesign
  • Operating model changes define product teams, support tiers and escalation

Participants can plan the replication of proven digital use cases across plants and sites.

  • Pilot selection balances business value, technical readiness and replicability
  • Site readiness assessments cover infrastructure, skills, data and local sponsorship
  • Reference implementations standardise patterns while allowing justified local variations
  • Replication waves sequence sites by risk, capacity and dependency constraints
  • Platform governance manages reusable components, standards, funding and ownership
  • Benefits tracking distinguishes pilot results from scaled operational performance

Participants can produce an integrated roadmap and executive governance approach for transformation delivery.

  • Transformation roadmap sequences foundations, use cases, platforms and scale-up
  • Dependency mapping exposes prerequisites among data, connectivity, security and skills
  • Quarterly objectives and key results align delivery teams with outcomes
  • Portfolio dashboards report value, delivery confidence, risks and decision requests
  • Executive steering packs frame choices, trade-offs, funding and accountability
  • Implementation plans integrate technology releases with plant shutdown windows

Participants can build, review and present a complete Industry 4.0 transformation proposal for a defined manufacturing operation.

  • Transformation charter defines target process, value hypothesis and scope
  • Current-state assessment documents maturity gaps, constraints and baseline measures
  • Target architecture specifies data flows, integrations, security and platform decisions
  • Prioritised use-case backlog scores value, feasibility, risk and dependencies
  • Delivery roadmap sequences pilots, releases, adoption actions and benefits reviews
  • Executive presentation defends investment case, governance and implementation decisions

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Industry 4.0 digital maturity assessment template
  2. Manufacturing use-case prioritisation matrix
  3. IT/OT target architecture model
  4. IIoT solution requirements checklist
  5. Digital transformation business case template
  6. Manufacturing transformation roadmap and governance pack

Who should attend

  • Manufacturing Transformation Managers — responsible for turning digital initiatives into measurable plant improvements
  • Operations Managers — need to connect production priorities with technology investment decisions
  • Plant Managers — oversee performance, adoption, risk and site-level implementation readiness
  • IT and OT Managers — must integrate enterprise, manufacturing and control systems securely
  • Engineering and Automation Managers — specify connected assets, controls and industrial data requirements
  • Data and Analytics Leaders — develop governed data products and operational analytics use cases

Skills and tools covered

Digital maturity assessmentIT/OT architectureIndustrial data governanceIIoT solution designTransformation portfolio managementBenefits realisation planning

Tools and standards

RAMI 4.0, ISA-95, IEC 62443, ADKAR

How the course runs

Training methodology

The course uses short instructor briefings to introduce methods, standards and technical concepts, followed by manufacturing cases, facilitated group analysis and structured design activities. Participants assess sample plants, define use cases, map processes, develop architecture choices and test investment assumptions. Simulations examine delivery trade-offs involving security, data quality, adoption and operational continuity. Individual application planning helps participants adapt the methods to their own site, product line, asset base or transformation portfolio.

Requirements and prerequisites

Participants should have practical familiarity with manufacturing operations, industrial engineering, IT, automation, quality, maintenance or business improvement. They should recognise common plant measures such as OEE, yield, downtime, throughput and traceability, and have experience contributing to projects or operational change. Prior experience with ERP, MES, SCADA, PLCs, data platforms or cloud services is helpful but not essential. The course does not require programming, advanced statistics, data science, cybersecurity certification or prior knowledge of Industry 4.0 reference architectures.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

Participants should have working familiarity with manufacturing operations, engineering, IT, automation, quality, maintenance or improvement projects. Programming, advanced analytics and cybersecurity qualifications are not required.

Participants should bring a laptop for live online delivery and are encouraged to bring a current manufacturing challenge, use case or transformation proposal. Site data is not required, and confidential information should not be shared.

The course is designed for managers and specialists who connect manufacturing performance with digital technology decisions. It is relevant to plant, operations, engineering, IT, OT, quality, maintenance, data and transformation roles.

This course focuses on manufacturing systems, production processes, industrial data, IT/OT integration, connected assets and plant cybersecurity. General digital transformation courses usually place greater emphasis on customer channels, corporate processes and office-based technology change.

Participants can use the templates and methods to assess a plant, define a use case, prepare an investment case or improve an existing pilot. The capstone structure can also be adapted for internal steering committee submissions.

Each training day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes value, process, data, architecture and cybersecurity foundations, while the second week develops delivery, adoption, scaling and the capstone proposal.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.