Direct answer
Industrial project core concepts are the shared definitions a buyer needs before scoping a capital project: how the investment is framed (greenfield, brownfield, modernization, capacity planning, contingency, discounted cash flow), how machinery is engineered and documented, how automation and material handling are specified, how the asset is maintained and measured, and how the first supplier conversation starts with a request for information.
Industrial Investment & CAPEX
Brownfield Project
Industrial project carried out within or alongside an existing facility, involving expansion, retrofit or modernisation of existing infrastructure rather than new-site construction.
Brownfield projects can leverage existing utilities, permits and workforce, often shortening timelines relative to greenfield builds. They typically require careful integration with ongoing operations, existing structural and utility constraints, and sometimes phased shutdowns.
Recognising a project as brownfield alerts planners to integration risk, potential production downtime and constraints from existing equipment or layout that a greenfield project would not face.
Downtime risk
Brownfield retrofits commonly require scheduled shutdowns or phased tie-ins to avoid disrupting ongoing production.
Not the same as Greenfield project
Brownfield modifies or expands an existing site; greenfield builds on undeveloped land.
A dairy plant undertakes a brownfield expansion to add a UHT processing line within its existing building envelope.
Is brownfield always cheaper?
Often, due to reuse of existing infrastructure, but integration complexity and downtime risk can offset the savings.
Does brownfield include environmental remediation?
In some usages yes, particularly on previously industrial land requiring soil or contamination remediation before reuse.
RelatedGreenfield ProjectFactory ExpansionPlant ModernizationCommissioning
Industrial Investment & CAPEX
Greenfield Project
Industrial development built on previously undeveloped land, requiring new site infrastructure, utilities, permits and construction rather than modification of an existing facility.
Greenfield projects offer design flexibility and the ability to optimise layout, process flow and future expansion from the outset, but they typically involve longer permitting timelines, higher upfront infrastructure cost and greater schedule risk than working within an existing plant.
Understanding a project as greenfield helps a buyer scope civil works, utilities and permitting realistically, and avoid underestimating lead time and total investment.
Timeline
Greenfield industrial projects commonly take 18-36 months from site selection to production start, depending on scale and permitting complexity.
Not the same as Brownfield project
Greenfield starts on undeveloped land with no existing structures; brownfield reuses or modifies an existing site or facility.
An investor selects a greenfield site for a new poultry processing plant to allow a purpose-built layout.
Are greenfield projects more expensive?
They often carry higher upfront infrastructure costs but avoid constraints and retrofit compromises common to brownfield sites.
What approvals are typically needed?
Land use, environmental, utility connection and construction permits are commonly required, varying by jurisdiction.
RelatedBrownfield ProjectFeasibility StudyTurnkey ProjectProduction Line
Industrial Investment & CAPEX
Plant Modernization
Also called: plant modernisation · retrofit
Upgrade of existing production facilities or equipment to improve efficiency, quality, safety or compliance without necessarily increasing overall production capacity.
Modernisation projects commonly replace ageing controls, drives or process equipment, or add automation and monitoring to legacy lines. They are often justified through energy savings, reduced downtime, regulatory compliance or extended asset life rather than capacity growth.
Modernisation can defer the higher cost of full replacement while extending asset life, but it requires careful assessment of remaining useful life and integration risk with older equipment.
Payback drivers
Energy efficiency and downtime reduction are commonly cited as the primary payback drivers for modernisation projects.
Not the same as Factory expansion
Modernisation upgrades existing capability; expansion adds new capacity.
A packaging plant modernises its control system to reduce changeover time and improve overall equipment effectiveness.
Is modernisation cheaper than replacement?
Often yes for equipment with substantial remaining structural life, but a feasibility study should compare both options on total cost of ownership.
Does modernisation affect warranty?
Retrofitting components can affect original equipment warranties; this is typically clarified with the equipment supplier before work begins.
RelatedBrownfield ProjectOverall Equipment Effectiveness (OEE)Industrial Asset LifecycleTotal Cost of Ownership (TCO)
Industrial Investment & CAPEX
Production Capacity Planning
Process of forecasting demand and determining the equipment, staffing and facility capacity needed to meet it within a defined planning horizon.
Capacity planning links demand forecasts, product mix and operating patterns (such as shift structure) to required throughput, informing whether to add lines, extend hours, modernise equipment or build new capacity. It is typically revisited as part of annual budgeting and major investment decisions.
Poor capacity planning leads either to costly overcapacity or to lost sales and strained operations from undercapacity, making it central to sound CAPEX decisions.
Planning horizon
Manufacturers commonly plan capacity on rolling three- to five-year horizons, revisited annually against actual demand.
A feed mill uses capacity planning to decide whether a third shift or a new production line better meets projected growth.
How does capacity planning differ from a feasibility study?
Capacity planning identifies the need and scale for capacity; a feasibility study evaluates whether a specific project to meet that need is viable.
What data feeds capacity planning?
Demand forecasts, historical utilisation, OEE data and product mix are commonly used inputs.
RelatedFactory ExpansionOverall Equipment Effectiveness (OEE)Feasibility StudyBusiness Case
Industrial Investment & CAPEX
Contingency Budget
Reserve of funds set aside within a project budget to cover identified and unidentified risks, cost estimate uncertainty and unforeseen changes during execution.
Contingency is typically calculated as a percentage of base estimated cost, with the percentage decreasing as the project moves from early concept stages to detailed design, reflecting reduced estimate uncertainty. It is distinct from management reserve, which covers scope changes rather than estimate uncertainty.
Adequate contingency protects a project from being derailed by normal estimating uncertainty, while excessive contingency can make a viable project appear unaffordable.
Typical range
Contingency is commonly set in the range of 10-30 percent of base cost at feasibility stage, narrowing as design matures.
Not the same as Management reserve
Contingency covers estimating uncertainty within defined scope; management reserve covers changes in scope or unforeseen events outside the original plan.
The project budget includes a 15 percent contingency to cover estimating uncertainty at the feasibility stage.
Does contingency get spent automatically?
No; contingency is drawn down only against justified cost items and is typically managed under formal change control.
Who controls release of contingency funds?
Release is commonly governed by the project sponsor or a project control board, following documented justification.
RelatedClass 5 Cost EstimateFeasibility StudyBusiness CaseCapital Expenditure (CAPEX)
Industrial Investment & CAPEX
Discounted Cash Flow (DCF)
Also called: DCF
Valuation method that estimates the present value of an asset or project by discounting its projected future cash flows using a chosen discount rate.
DCF analysis underpins metrics such as net present value and internal rate of return. It requires assumptions about future revenue, costs, capital expenditure timing and a discount rate reflecting the risk and cost of capital associated with the project.
DCF is the analytical foundation for most rigorous industrial investment appraisal, translating multi-year projections into figures that can be compared on a like-for-like basis today.
Sensitivity analysis
DCF models are commonly stress-tested with sensitivity analysis on key assumptions such as volume, price and discount rate.
Not the same as Payback period
DCF accounts for the time value of money across the full cash flow horizon; simple payback period does not.
A financial analyst builds a discounted cash flow model to value a proposed 10-year cold storage investment.
What inputs does a DCF model need?
Typically projected revenues, operating costs, capital expenditure, terminal value assumptions and a discount rate.
Is DCF used only for large projects?
It is most commonly applied to significant capital projects, though the underlying logic can be scaled to smaller decisions.
RelatedNet Present Value (NPV)Internal Rate of Return (IRR)Business CaseHurdle Rate
Industrial Investment & CAPEX
Industrial Asset Lifecycle
Full sequence of stages an industrial asset passes through, from planning and acquisition through operation, maintenance and eventual replacement or decommissioning.
Understanding the asset lifecycle helps organisations plan capital replacement, budget for maintenance and evaluate total cost of ownership rather than focusing only on acquisition price. Lifecycle stages typically include specification, procurement, installation, commissioning, operation, maintenance and decommissioning.
Lifecycle thinking shifts investment decisions from lowest purchase price toward lowest total cost and risk across the asset's full operating life.
Typical asset life
Heavy industrial machinery commonly has a useful operating life in the range of 10-25 years, depending on duty cycle and maintenance.
Not the same as Total cost of ownership
Asset lifecycle describes the stages an asset moves through; total cost of ownership quantifies the cumulative cost across those stages.
A plant manager tracks each major asset's lifecycle stage to plan replacement capital ahead of end-of-life failures.
When should replacement planning begin?
Many organisations begin replacement planning several years before an asset's expected end of useful life, to allow for budgeting and lead time.
Does lifecycle planning include resale or decommissioning value?
Comprehensive lifecycle planning typically accounts for residual or scrap value and decommissioning cost at end of life.
RelatedTotal Cost of Ownership (TCO)Plant ModernizationOverall Equipment Effectiveness (OEE)Commissioning
Engineering & Custom Machinery
Machine Design Cycle
Also called: equipment design lifecycle
Machine design cycle describes the sequence of stages, from concept through basic design, detailed design, build, testing and handover, that a piece of custom equipment passes through.
Typical stages include requirements capture, concept and feasibility review, basic engineering, detailed engineering, procurement of components, fabrication and assembly, factory acceptance testing, delivery, installation and commissioning. Stage gates are often used to control risk before committing further budget.
Mapping the design cycle helps buyers align payment milestones, inspections and change-control points with actual engineering progress.
Stage gates
Reviews at the end of concept and basic engineering are commonly used to freeze scope before detailed design proceeds.
Iteration
Detailed engineering and prototyping stages may iterate multiple times before design freeze on complex machines.
A project schedule ties a 30% payment milestone to completion of the basic engineering design stage of the machine design cycle.
Can stages overlap?
Yes, concurrent engineering practices often overlap detailed design and long-lead procurement to compress schedule.
What ends the design cycle?
Formal handover after successful site acceptance testing and commissioning typically closes the design cycle.
RelatedBasic Engineering DesignDetailed EngineeringFactory Acceptance Test (FAT)Commissioning
Engineering & Custom Machinery
Machinery Directive
Also called: EU Machinery Directive
Machinery Directive is the European Union legal framework setting essential health and safety requirements that machinery must satisfy before being placed on the EEA market.
The directive covers design and construction principles including guarding, control systems, stability and emission limits, and is typically implemented alongside harmonised standards that provide a presumption of conformity. Compliance underpins the CE marking process for machinery.
Understanding the directive's scope helps buyers verify supplier compliance claims and assess residual risk when procuring machinery for EEA facilities.
Structure
The directive sets essential requirements; harmonised standards typically provide detailed technical means of compliance.
Risk assessment
A documented risk assessment is typically required as part of the conformity process under the directive.
The supplier referenced compliance with the Machinery Directive and relevant harmonised standards in the technical file for a new packaging line.
Does the Machinery Directive cover robots?
Yes, industrial robots and robotic cells fall within its scope alongside dedicated robot safety standards such as ISO 10218.
Is compliance self-declared?
For most machinery categories, manufacturers self-declare conformity; higher-risk categories may require third-party assessment.
Engineering & Custom Machinery
General Arrangement Drawing (GA Drawing)
Also called: GA drawing · layout drawing
General Arrangement Drawing (GA drawing) is a scaled drawing showing the overall dimensions, footprint and spatial layout of a machine or production line within a facility.
GA drawings typically indicate equipment envelope, access clearances, service connection points, and interfaces with building structure such as foundations, drainage and utility feeds. They are used by the buyer's facility and civil teams to confirm fit before equipment is fabricated.
Reviewing the GA drawing early prevents costly rework from clashes with building structure, existing equipment or access routes discovered after delivery.
Typical content
GA drawings usually include overall dimensions, weight, service connection points and required maintenance clearances.
Approval step
Buyer sign-off of the GA drawing is commonly a contractual milestone before detailed fabrication proceeds.
The GA drawing revealed that the proposed conveyor height would clash with an existing mezzanine, prompting a layout revision before fabrication.
Is a GA drawing the same as a P&ID?
No, a GA drawing addresses physical layout and dimensions; a P&ID addresses process piping and instrumentation.
When is the GA drawing issued?
Typically during basic engineering, then updated through detailed engineering as the design matures.
RelatedBasic Engineering DesignProcess Flow Diagram (PFD)Detailed Engineering
Engineering & Custom Machinery
Reverse Engineering
Reverse engineering is the process of analysing an existing physical component, machine or assembly to recreate its design data, drawings or specifications when original documentation is unavailable.
Techniques typically include physical measurement, 3D scanning, material analysis and functional testing to derive dimensions, tolerances and material specifications. Reverse engineering is commonly used to source obsolete spare parts or to support retrofit and modernisation projects.
Buyers with ageing equipment and missing documentation can use reverse engineering to source replacement parts or plan upgrades without relying on the original manufacturer.
Common tools
3D laser scanning and coordinate measuring machines are commonly used to capture geometry during reverse engineering.
Legal considerations
Intellectual property rights should be assessed before reverse engineering proprietary designs for reproduction.
Reverse engineering of a discontinued gearbox housing produced updated CAD drawings used to source a compatible replacement part.
Is reverse engineering legal?
Practice varies by jurisdiction and intellectual property status; legal advice is commonly sought before reproducing proprietary designs commercially.
How accurate is reverse-engineered data?
Accuracy depends on measurement method; 3D scanning can achieve tolerances suitable for most mechanical replacement parts.
RelatedRetrofit EngineeringDetailed EngineeringTechnical Specification
Automation & Production Systems
Industrial Automation
Industrial automation is the use of control systems, robotics and information technology to operate production equipment and processes with reduced manual intervention.
It spans discrete control of individual machines through PLCs, supervisory monitoring via SCADA, and enterprise-level coordination through manufacturing execution systems. Automation levels range from basic sequencing of a single machine to fully integrated lines coordinating robotics, conveying and quality inspection.
The level of automation chosen directly affects capital cost, labour requirements, throughput consistency and the skill profile needed to operate and maintain the plant.
Typical drivers
Labour cost and availability, consistency requirements and traceability needs are commonly cited drivers of automation investment.
Layered structure
Automation is commonly implemented in layers: field devices, control (PLC), supervisory (SCADA/HMI) and enterprise (MES).
An industrial automation upgrade replaced manual product sorting with a vision-guided robotic system integrated with the line's PLC.
Does automation eliminate all manual labour?
Rarely entirely; most automated lines retain roles for setup, quality checks, exception handling and maintenance.
What is the first step in an automation project?
A feasibility study assessing process suitability, return on investment and organisational readiness is commonly the first step.
RelatedProgrammable Logic Controller (PLC)Supervisory Control and Data Acquisition (SCADA)Manufacturing Execution System (MES)Feasibility Study
Automation & Production Systems
Warehouse Automation
Warehouse automation is the application of automated storage, retrieval and material handling technology to receive, store, pick and dispatch goods with reduced manual handling.
Common technologies include automated storage and retrieval systems (AS/RS), conveying and sortation systems, AGVs and AMRs, and warehouse management software coordinating these assets. Automation levels range from targeted point solutions, such as automated case picking, to fully integrated automated warehouses.
Warehouse automation investment decisions typically depend on throughput volumes, SKU variety and labour cost trends, since high automation levels suit stable, high-volume operations best.
Common technologies
AS/RS, conveying and sortation, and mobile robots are commonly combined in automated warehouse designs.
Suitability driver
High and stable throughput volumes are commonly cited as a condition favouring higher automation investment.
An automated storage and retrieval system reduced order picking travel time in a distribution centre handling high SKU volumes.
Is warehouse automation only for large distribution centres?
Point solutions such as automated conveying or pick-to-light systems are also used in smaller facilities, though full AS/RS is more common at larger scale.
Does warehouse automation replace warehouse management software?
No, automation equipment typically operates under coordination from warehouse management or execution software.
RelatedAutomated Guided Vehicle and Autonomous Mobile Robot (AGV / AMR)Conveying SystemManufacturing Execution System (MES)
Automation & Production Systems
Palletizing System
Also called: palletiser
Palletizing system is equipment, either robotic or mechanical, that arranges and stacks finished cases or products onto pallets in a defined pattern for storage or shipment.
Systems typically comprise a robot or dedicated palletiser mechanism, layer-forming tooling, pallet dispensing and conveying interfaces. Pattern software determines stacking arrangement to optimise pallet stability and space utilisation, and may need to accommodate multiple product formats.
Palletizing throughput and pattern flexibility often determine the practical output limit of an otherwise fast upstream production line.
Common technologies
Robotic arm palletisers and dedicated mechanical layer palletisers are the two commonly used technology approaches.
Pattern software
Pallet pattern software commonly optimises stacking for stability and trailer or container fill efficiency.
Not the same as depalletizing system
A palletizing system builds pallet loads from individual units; a depalletizing system performs the reverse, removing units from an existing pallet.
A robotic palletizing system stacked cartons in an interlocking pattern to improve load stability during transport.
Can one palletizing system handle multiple case sizes?
Many systems are designed with programmable patterns and adjustable tooling to handle several formats, within defined limits.
Is palletizing typically the bottleneck of a line?
It can be, particularly on high-speed lines, making palletizer throughput a key specification parameter.
Operations & Performance
Continuous Improvement
Also called: kaizen
Ongoing, incremental process of identifying and implementing small operational improvements to quality, efficiency or safety, rather than relying solely on large periodic upgrades.
Continuous improvement programmes, often referred to by the Japanese term kaizen, typically operate through structured cycles such as plan-do-check-act and rely on frontline staff input alongside data from metrics like OEE and yield. They complement, rather than replace, planned capital investment.
A documented continuous improvement programme can extend the useful life and performance of existing assets, affecting the timing and scale of future capital expenditure decisions.
Common cycle
Plan-do-check-act (PDCA) is a widely used improvement cycle structure.
Origin
Associated with the Japanese term kaizen, meaning change for the better.
The plant's continuous improvement programme reduced scrap rate by 1.5 percentage points over twelve months through incremental process adjustments.
Does continuous improvement replace capital investment?
No, it complements capital investment by improving the performance of existing assets between major upgrade cycles.
Who typically drives continuous improvement?
Cross-functional teams including operators, maintenance and quality staff, often coordinated by a dedicated improvement lead.
RelatedLean ManufacturingOverall Equipment Effectiveness (OEE)Yield and Scrap RateLabour Productivity
Operations & Performance
Preventive Maintenance (PM)
Also called: PM · scheduled maintenance
Planned maintenance programme performed at predetermined intervals or usage thresholds to reduce the probability of unplanned equipment failure.
Preventive maintenance contrasts with reactive (run-to-failure) and predictive (condition-based) approaches, and most industrial plants operate a blend of all three depending on asset criticality. Programmes are usually defined by the equipment manufacturer's recommended service intervals and adjusted using plant operating history.
A documented preventive maintenance plan affects warranty compliance, insurance terms and the accuracy of mean time between failures projections used in feasibility studies.
Basis
Typically driven by calendar time, operating hours or production cycles.
Cost trade-off
Over-maintenance increases direct cost; under-maintenance increases failure risk and unplanned downtime.
Not the same as Predictive maintenance
Predictive maintenance uses condition monitoring data to trigger work only when degradation is detected, rather than on a fixed schedule.
The maintenance contract specified quarterly preventive maintenance visits for the refrigeration compressors during the warranty period.
Does preventive maintenance eliminate breakdowns?
No, it reduces failure probability but cannot eliminate all unplanned failures, particularly from random component defects.
Who typically performs it?
Either in-house maintenance teams, the equipment supplier under a service contract, or a specialised third party.
RelatedMean Time Between Failures (MTBF)Spare Parts StrategyCommissioningCapacity Utilisation
Operations & Performance
Spare Parts Strategy
Also called: spares inventory strategy · critical spares list
Planned approach to identifying, stocking and sourcing replacement components based on criticality, lead time and failure risk to limit unplanned downtime.
A spare parts strategy typically classifies components as critical, semi-critical or non-critical, with stocking decisions balancing the cost of holding inventory against the cost of production loss during a stockout. Long-lead-time or single-source items are frequently identified during commissioning and stocked locally regardless of unit cost.
Buyers who omit spare parts planning at the procurement stage often face extended downtime later, since critical components sourced internationally can carry multi-week lead times.
Classification basis
Criticality, failure frequency and supplier lead time are the common ranking criteria.
Timing
Critical spares lists are usually finalised during commissioning based on as-built equipment configuration.
The turnkey project contract required the supplier to deliver a two-year critical spares package alongside the commissioned line.
Should every part be stocked locally?
No, stocking is prioritised for high-criticality, long-lead-time or single-source components rather than the full bill of materials.
How does spare parts strategy relate to MTBF?
MTBF data helps estimate expected failure frequency, which informs how much stock and which components to hold.
RelatedMean Time Between Failures (MTBF)Preventive Maintenance (PM)Total Cost of Ownership (TCO)Commissioning
Operations & Performance
Utility Consumption
Also called: utilities load
Total quantity of electricity, water, steam, compressed air or fuel consumed by a facility or production line over a given period, expressed in absolute units.
Utility consumption figures are used in feasibility studies to size incoming electrical supply, boiler capacity, water treatment and effluent systems, and are typically documented in a utilities schedule attached to the technical specification. They are distinct from energy intensity, which normalises consumption against output.
Accurate utility consumption estimates are essential for site infrastructure sizing and connection agreements with local utility providers, which can materially affect project timelines.
Documented in
Utility schedules or load lists prepared during feasibility and detailed engineering stages.
Common categories
Electricity, potable water, process water, compressed air, steam and fuel gas.
The feasibility study included a utilities schedule projecting peak electrical demand of 2.4 megawatts for the new processing plant.
Who prepares the utility consumption estimate?
Typically the engineering consultant or equipment supplier during feasibility and detailed design, validated during commissioning.
Does utility consumption include standby loads?
A complete schedule should include both operating and standby loads to avoid undersizing infrastructure.
RelatedEnergy IntensityFeasibility StudyTechnical SpecificationIndustrial Sustainability
Operations & Performance
Labour Productivity
Also called: output per worker
Ratio of production output to labour input, commonly expressed as units or tonnes produced per worker-hour, used to evaluate workforce efficiency and automation returns.
Labour productivity is a key variable in the business case for automation and special-purpose machinery, since it directly compares manual and automated production scenarios. It is influenced by process design, training, shift patterns and the degree of automation already in place.
Comparing labour productivity before and after an automation investment is one of the most common ways buyers quantify payback in a capital expenditure justification.
Common unit
Units, kilograms or tonnes produced per worker-hour or per shift.
Influencing factor
Line balancing and changeover time both materially affect achievable labour productivity.
The automation business case projected labour productivity gains of 30 percent following installation of the robotic palletising cell.
Does higher labour productivity always mean fewer jobs?
Not necessarily; it can also mean redeployment to higher-value tasks or increased output at the same headcount.
How is labour productivity linked to OEE?
OEE measures equipment effectiveness, while labour productivity measures workforce output; both are used together to evaluate overall line performance.
RelatedOverall Equipment Effectiveness (OEE)Industrial AutomationCapacity UtilisationLean Manufacturing
Procurement & Sourcing
Request for Information (RFI)
Also called: RFI
Preliminary buyer inquiry used to gather general capability, capacity and technology information from potential suppliers before formal tendering begins.
An RFI is typically non-binding and does not request firm pricing. Buyers use it to map the supplier landscape, understand available technologies, and refine scope before issuing an RFQ or RFP.
Early market information reduces the risk of writing specifications around a single supplier's product or missing viable technical alternatives.
Typical duration
RFI responses are commonly requested within 1–3 weeks given their lower complexity than a full tender.
Non-binding nature
RFI responses generally do not commit either party to price or contract terms.
Not the same as Request for Quotation (RFQ)
An RFI gathers information to shape a specification; an RFQ requests firm pricing against a specification already defined.
Before designing a cold storage expansion, a facility owner issues an RFI to understand available refrigeration technologies and typical lead times.
Does an RFI commit the buyer to a purchase?
No, an RFI is an information-gathering step and does not obligate either party to proceed.
How does an RFI feed into a feasibility study?
Information gathered can inform technology assumptions, cost ranges and supplier availability used in the feasibility study.
RelatedRequest for Quotation (RFQ)Feasibility StudyTechnical Specification
Go deeper on this topic
These are the practical guides and buyer tools that use the definitions above.
Reference content only. Global B2B Group is independent of equipment manufacturers and financing institutions; definitions are provided for education and do not constitute engineering, financial or legal advice. Browse the full reference library.