Factory Automation Retrofit and Production Continuity Planning Intensive Course

Course Introduction

Factory automation retrofit is a strategic approach to modernizing existing manufacturing facilities by upgrading control systems, replacing obsolete equipment, integrating advanced automation technologies, and improving production performance without necessarily rebuilding the entire factory. Manufacturers increasingly undertake retrofit projects to extend asset life, improve process consistency, reduce downtime, enhance safety, and respond to changing market demands while controlling capital expenditure. The Factory Automation Retrofit and Production Continuity Planning Intensive Course provides a comprehensive framework for assessing legacy manufacturing environments, planning automation upgrades, coordinating technical modifications, and maintaining production continuity throughout implementation. Participants will learn how to balance modernization objectives with operational constraints, investment priorities, equipment reliability, and the need to maintain customer commitments.

Successful factory automation retrofit requires a detailed understanding of existing equipment, control architectures, production workflows, machine interfaces, electrical infrastructure, industrial networks, safety systems, and maintenance arrangements. Legacy programmable logic controllers, human-machine interfaces, variable-frequency drives, sensors, actuators, industrial robots, and supervisory systems may use different technologies, communication protocols, and configuration methods. Upgrading one component can affect multiple interconnected processes, creating risks involving compatibility, control logic, data exchange, production sequencing, and equipment protection. Participants will explore practical methods for assessing existing installations, identifying obsolescence risks, documenting technical interfaces, defining retrofit requirements, and validating proposed solutions before implementation. The course emphasizes engineering verification, controlled configuration changes, and structured integration planning to reduce the likelihood of unexpected production failures.

Production continuity planning is particularly important when automation upgrades must be implemented in factories operating under demanding production schedules, limited shutdown windows, high equipment utilization, and strict delivery commitments. An inadequately planned retrofit can cause extended outages, incomplete commissioning, quality deviations, material accumulation, missed delivery dates, and expensive emergency interventions. Participants will learn how to develop phased retrofit strategies, coordinate planned shutdowns, establish temporary operating arrangements where technically and safely appropriate, prepare contingency plans, and align installation activities with production forecasts. The course examines the relationship between maintenance windows, equipment dependencies, spare-parts availability, contractor mobilization, testing requirements, and restart readiness. It also addresses how production, engineering, maintenance, quality, logistics, and commercial teams can coordinate decisions to minimize disruption while preserving safe operating conditions.

A successful retrofit programme also depends on disciplined project governance, realistic cost and schedule estimates, effective supplier management, and clear acceptance criteria. Participants will examine how to establish scope boundaries, develop work packages, identify critical interfaces, manage procurement lead times, coordinate factory acceptance testing, and prepare site installation activities. They will explore commissioning plans that cover control logic verification, input and output checks, equipment interlocks, communication testing, safety validation, process trials, and performance acceptance. Particular attention will be given to legacy documentation gaps, unexpected equipment conditions, software compatibility problems, configuration backups, and the management of technical changes discovered during installation. These practices help project teams control uncertainty and improve the likelihood that upgraded systems return to stable production within the approved outage window.

Modern factory retrofits increasingly incorporate industrial Internet of Things platforms, advanced sensors, robotics, machine vision, digital twins, energy monitoring, predictive maintenance, and data-driven production control. These technologies can improve operational visibility, reduce repetitive manual activities, identify equipment deterioration, and support more informed production decisions. However, introducing connected automation into established factories also raises concerns involving cybersecurity, network segmentation, software support, data quality, workforce readiness, and the integration of operational technology with enterprise systems. The course examines how to assess these technologies in relation to practical production requirements, lifecycle costs, technical maturity, maintainability, and measurable business benefits. Participants will also consider workforce training, change management, revised operating procedures, and maintenance capability as essential elements of modernization rather than activities to be postponed until installation is complete.

By completing the Factory Automation Retrofit and Production Continuity Planning Intensive Course, participants will strengthen their ability to manage modernization projects from initial condition assessment and investment justification through engineering design, shutdown planning, installation, commissioning, production restart, and benefits realization. They will develop practical capabilities in retrofit scope definition, interface management, outage scheduling, production risk assessment, supplier coordination, commissioning assurance, operational readiness, and continuous improvement. Through realistic implementation scenarios and structured planning exercises, participants will learn how to anticipate disruption, protect critical production requirements, coordinate multidisciplinary teams, and establish reliable recovery arrangements. The programme supports manufacturers seeking to modernize existing facilities, reduce implementation uncertainty, improve equipment performance, and maintain dependable production throughout automation transformation.

Duration

10 days

Who Should Attend

• Factory managers and manufacturing executives responsible for production modernization, operational performance, asset renewal, and capital investment decisions.

• Automation retrofit project managers coordinating legacy equipment upgrades, control system replacement, installation activities, commissioning, and operational handover.

• Industrial automation engineers responsible for PLC modernization, HMI replacement, drive upgrades, sensor integration, control logic changes, and industrial communications.

• Production managers responsible for coordinating retrofit activities with production schedules, customer delivery commitments, inventory requirements, and manufacturing capacity.

• Maintenance managers and reliability engineers overseeing aging equipment, obsolescence risks, shutdown maintenance, spare-parts planning, and equipment restoration.

• Electrical and instrumentation engineers responsible for control panels, field wiring, sensors, actuators, motors, drives, instrumentation, and electrical system modifications.

• Mechanical and manufacturing engineers coordinating machine modifications, production line changes, tooling interfaces, equipment alignment, and process integration.

• Industrial project planners and schedulers responsible for shutdown scheduling, work package sequencing, resource allocation, critical-path analysis, and restart milestones.

• Health, safety, and environmental professionals supporting retrofit risk assessments, isolation planning, contractor safety, machinery safeguarding, and controlled restart activities.

• Quality assurance and process improvement specialists responsible for validating production quality, process capability, inspection arrangements, and defect prevention following automation changes.

• Procurement and contract management professionals sourcing automation hardware, software, engineering services, installation contractors, commissioning specialists, and technical support.

• Information technology and operational technology specialists integrating legacy automation with industrial networks, manufacturing execution systems, data platforms, and cybersecurity controls.

• Commissioning engineers and technical supervisors responsible for installation verification, functional testing, process trials, performance acceptance, and production recovery.

• Supply chain and operations planning professionals coordinating material availability, inventory buffers, supplier deliveries, and customer commitments during planned production interruptions.

• Consultants and technical advisers supporting factory modernization, automation retrofits, industrial digitalization, manufacturing transformation, and production continuity programmes.

Course Objectives

• Develop a comprehensive understanding of factory automation retrofit principles, legacy equipment modernization, technical obsolescence, production continuity requirements, and manufacturing transformation objectives.

• Assess existing manufacturing assets, control architectures, equipment interfaces, production dependencies, maintenance records, and operational constraints to define appropriate retrofit priorities.

• Develop integrated retrofit plans connecting engineering design, procurement, installation, shutdown windows, commissioning, production trials, operational handover, and benefits realization.

• Evaluate automation upgrade options involving PLCs, HMIs, drives, sensors, robotics, machine vision, industrial networks, and supervisory systems according to compatibility, reliability, lifecycle cost, and business requirements.

• Apply production continuity planning techniques to protect critical operations, maintain customer commitments, coordinate inventory buffers, and reduce the operational impact of planned equipment outages.

• Establish realistic shutdown schedules that integrate work packages, equipment dependencies, contractor resources, material availability, safety requirements, testing activities, and restart authorization milestones.

• Identify and manage retrofit risks associated with obsolete components, incomplete documentation, software incompatibility, control logic errors, commissioning delays, equipment damage, and unexpected production conditions.

• Strengthen project governance and supplier coordination through defined responsibilities, technical approvals, change control, interface registers, contract milestones, escalation arrangements, and acceptance criteria.

• Develop structured testing and commissioning procedures covering wiring verification, control logic, interlocks, communication interfaces, safety functions, process performance, and production readiness.

• Establish restart and recovery arrangements that address equipment validation, product quality checks, operator readiness, maintenance support, production stabilization, and contingency response.

• Evaluate emerging retrofit technologies, including digital twins, connected sensors, predictive maintenance, industrial analytics, and cybersecurity controls, while considering integration feasibility and long-term support.

• Measure retrofit performance through downtime, schedule adherence, installation defects, commissioning success, equipment availability, production output, quality indicators, energy performance, and realized financial benefits.

Comprehensive Course Outline

Module 1: Foundations of Factory Automation Retrofit and Modernization

• Examine the principles of automation retrofit and distinguish targeted equipment upgrades, control system replacement, production line modernization, and comprehensive factory transformation.

• Identify common modernization drivers, including obsolete control hardware, unsupported software, rising maintenance costs, unreliable equipment, quality variation, limited production flexibility, and safety improvement requirements.

• Assess how retrofit projects influence manufacturing throughput, process capability, asset reliability, energy performance, operational safety, maintenance workload, and customer delivery performance.

• Establish a structured retrofit lifecycle covering opportunity identification, condition assessment, investment justification, engineering design, procurement, implementation, commissioning, operational handover, and continuous improvement.

Module 2: Existing Equipment Assessment and Technical Obsolescence Management

• Conduct structured condition assessments of legacy PLCs, HMIs, motor drives, sensors, actuators, electrical panels, instrumentation, communication networks, and associated control equipment.

• Review equipment documentation, electrical drawings, control logic, parameter files, operating manuals, alarm histories, maintenance records, and spare-parts availability to establish a reliable technical baseline.

• Evaluate obsolescence risks involving unsupported components, discontinued software, unavailable replacement parts, vendor dependency, cybersecurity weaknesses, and limited specialist maintenance capability.

• Develop equipment criticality assessments and modernization priorities based on failure consequences, production dependency, repairability, replacement feasibility, asset condition, and operational risk.

Module 3: Retrofit Scope Definition, Feasibility, and Investment Justification

• Define retrofit objectives, functional requirements, equipment boundaries, production constraints, interface responsibilities, performance targets, and acceptance conditions before detailed engineering begins.

• Compare alternative retrofit approaches, including like-for-like replacement, staged modernization, platform migration, partial automation, and integrated system upgrades.

• Develop preliminary cost estimates covering hardware, software, engineering, installation, production downtime, contractor support, testing, training, maintenance, and lifecycle expenditure.

• Prepare investment justifications using expected productivity improvements, reduced maintenance costs, quality benefits, risk reduction, energy savings, avoided obsolescence, and estimated financial returns.

Module 4: Control System Architecture and Legacy Technology Integration

• Assess existing control architectures and define appropriate modernization requirements for PLCs, distributed control systems, HMIs, supervisory control platforms, industrial drives, and field instrumentation.

• Develop interface specifications for equipment signals, communication protocols, input and output mappings, control sequences, interlocks, alarms, and data exchange between legacy and replacement systems.

• Evaluate compatibility challenges involving vendor-specific protocols, outdated operating systems, unsupported engineering software, hardware limitations, and differences between old and new control platforms.

• Establish architecture review procedures that verify functionality, maintainability, scalability, network requirements, fail-safe behavior, configuration governance, and compatibility with existing production equipment.

Module 5: Production Continuity Strategy and Operational Impact Assessment

• Identify critical production processes, bottleneck assets, customer-sensitive operations, upstream and downstream dependencies, and equipment whose unavailability could interrupt the wider manufacturing system.

• Assess the operational impact of proposed retrofit activities using production schedules, demand forecasts, inventory positions, equipment redundancy, alternative production routes, and customer delivery requirements.

• Develop continuity strategies that combine phased implementation, parallel testing, temporary operating arrangements where safe and approved, alternate production capacity, and contingency resources.

• Establish decision criteria for selecting retrofit windows based on production demand, equipment condition, maintenance opportunities, workforce availability, supplier schedules, and acceptable business risk.

Module 6: Shutdown Planning, Work Packaging, and Critical-Path Scheduling

• Develop detailed shutdown plans that sequence isolation, dismantling, panel modification, equipment replacement, wiring, software installation, integration, testing, and restart activities.

• Apply work breakdown structures, dependency mapping, critical-path analysis, resource loading, schedule risk assessment, and milestone control to identify activities that determine outage duration.

• Coordinate installation work packages with contractor mobilization, tools, spare parts, lifting equipment, access requirements, technical support, inspection hold points, and commissioning resources.

• Establish shutdown readiness reviews, daily progress reporting, constraint registers, escalation triggers, and schedule recovery procedures to manage unexpected delays during limited maintenance windows.

Module 7: Procurement, Vendor Management, and Technical Documentation

• Develop technical procurement specifications covering replacement hardware, control software, engineering services, communication equipment, panel modifications, installation materials, and commissioning support.

• Evaluate vendors and integrators according to technical compatibility, industrial experience, engineering capacity, delivery reliability, cybersecurity practices, warranty coverage, and long-term support.

• Establish contract milestones for design approval, software delivery, factory acceptance testing, equipment shipment, site installation, commissioning, performance testing, and operational handover.

• Maintain controlled documentation covering technical submittals, drawings, bills of materials, configuration files, software versions, change requests, test procedures, and as-built records.

Module 8: Factory Readiness, Installation Management, and Interface Coordination

• Conduct site readiness assessments covering utilities, electrical supplies, compressed air, equipment foundations, environmental conditions, network infrastructure, panel space, access routes, and installation clearances.

• Coordinate mechanical, electrical, instrumentation, controls, IT, safety, production, and maintenance teams to manage interfaces and prevent conflicting work during retrofit execution.

• Establish installation procedures for removing legacy components, preserving reusable assets, installing replacement equipment, terminating field wiring, labeling connections, and protecting adjacent operating systems.

• Apply inspection hold points, material verification, installation checklists, work completion records, and interface sign-offs to detect defects before integrated testing begins.

Module 9: Electrical Safety, Isolation, and Contractor Risk Management

• Assess hazards associated with electrical energy, moving machinery, stored energy, unexpected equipment startup, process pressure, thermal exposure, hazardous substances, and adjacent production activities.

• Develop isolation and lockout procedures, permit-to-work arrangements, verification requirements, safe access controls, and task-specific risk assessments appropriate to the retrofit environment.

• Coordinate contractor induction, competency verification, supervision, emergency arrangements, incident reporting, and control of simultaneous activities during shutdown and installation.

• Integrate machine safeguarding requirements into retrofit design, including interlocks, emergency stops, protective devices, safe operating modes, and validation of safety-related control functions.

Module 10: Software Migration, Configuration Control, and Change Management

• Develop procedures for migrating PLC programs, HMI applications, drive parameters, recipes, alarm definitions, communication settings, and control sequences between legacy and replacement platforms.

• Establish configuration baselines, controlled backups, version identification, approval workflows, change logs, access permissions, and recovery procedures for automation software and device settings.

• Validate migrated logic and parameters through structured reviews, simulation, offline testing, comparison with approved specifications, and verification of safety-related functions.

• Manage technical changes discovered during implementation through documented impact assessments, authorization, schedule and cost evaluation, regression testing, and updates to as-built documentation.

Module 11: Testing, Commissioning, and Functional Acceptance

• Develop commissioning plans covering mechanical completion, electrical verification, input and output testing, instrument calibration, communication checks, control logic validation, and equipment-specific functional tests.

• Conduct factory acceptance testing and site acceptance testing against approved requirements for equipment functionality, alarms, interlocks, control sequences, operating modes, and system interfaces.

• Perform integrated production trials to verify process sequencing, product handling, equipment coordination, operating stability, quality performance, and recovery from foreseeable faults.

• Establish acceptance criteria for defect closure, safety validation, performance verification, test documentation, configuration approval, outstanding issue management, and formal authorization to restart production.

Module 12: Production Restart, Stabilization, and Recovery Planning

• Develop restart procedures defining equipment inspection, utility restoration, control system activation, machine readiness verification, material preparation, safety checks, and authorized release of production operations.

• Coordinate first-piece inspections, process parameter verification, product quality checks, line balancing, production ramp-up, and approval of normal operating conditions following the retrofit.

• Establish contingency procedures for unsuccessful commissioning, unstable control behavior, product quality deviations, communication failures, equipment damage, and extended shutdown duration.

• Monitor production stabilization using output rates, downtime events, scrap levels, process deviations, maintenance interventions, and operator feedback to identify and resolve post-restart problems.

Module 13: Maintenance Readiness, Reliability, and Spare-Parts Strategy

• Develop maintenance plans for modernized PLCs, drives, HMIs, sensors, actuators, network equipment, electrical panels, and other upgraded automation components.

• Establish critical spare-parts inventories, repair arrangements, replacement lead-time assessments, software backup requirements, firmware records, and vendor support agreements.

• Apply reliability-centered maintenance, failure mode analysis, root-cause investigation, and equipment history reviews to prioritize maintenance activities and reduce recurring failures.

• Prepare maintenance technicians through training, diagnostic procedures, updated manuals, troubleshooting guides, safe intervention instructions, and documented escalation routes for specialist support.

Module 14: Operational Technology Cybersecurity and Industrial Data Integration

• Identify cybersecurity risks associated with legacy controllers, engineering workstations, unsupported operating systems, removable media, remote vendor access, and connections to enterprise networks.

• Establish appropriate controls for network segmentation, account management, secure remote access, software patch planning, configuration backups, event logging, and incident response.

• Define integration requirements for manufacturing execution systems, enterprise resource planning platforms, industrial historians, quality systems, production dashboards, and maintenance management applications.

• Develop data governance practices covering signal naming, timestamps, data validation, access rights, retention, interface monitoring, and protection of sensitive manufacturing information.

Module 15: Emerging Retrofit Technologies and Intelligent Factory Optimization

• Examine industrial Internet of Things sensors, machine vision, collaborative robotics, advanced drives, digital twins, edge computing, and analytics as potential components of factory modernization.

• Evaluate predictive maintenance and condition monitoring techniques using vibration, temperature, current, cycle counts, alarm patterns, and other relevant equipment health indicators.

• Assess opportunities for energy optimization, automated quality inspection, flexible production, machine connectivity, and improved operational visibility through targeted retrofit investments.

• Develop technology adoption criteria that consider maturity, interoperability, cybersecurity, workforce capability, vendor dependence, maintenance requirements, scalability, and measurable lifecycle benefits.

Module 16: Integrated Retrofit Simulation, Continuity Assurance, and Benefits Realization

• Develop an integrated retrofit delivery plan for a representative manufacturing line, connecting condition assessment, engineering design, procurement, shutdown planning, installation, testing, and restart.

• Evaluate a simulated implementation scenario involving an unexpected legacy interface, delayed replacement component, commissioning defect, extended outage, and pressure to resume production.

• Establish performance dashboards measuring planned versus actual downtime, schedule adherence, commissioning defects, equipment availability, production output, quality performance, and realized cost savings.

• Prepare a continuous improvement roadmap covering lessons learned, documentation quality, maintenance readiness, production recovery performance, technology lifecycle management, and future modernization priorities.

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.