Author: bp-editorial

Medical equipment movers: Engineering-led relocation for sensitive medical assets

Written by bp-editorial on 30 June 2026. Posted in Article. No Comments on Medical equipment movers: Engineering-led relocation for sensitive medical assets

Hospitals, laboratories and pharmaceutical manufacturers move equipment when departments expand, facilities are rebuilt or production transfers to a new site. For sensitive medical assets, the move has to protect the equipment, its calibration and cleanliness, and the services that depend on it.

Why does moving medical equipment need specialist engineering?

Medical and laboratory equipment combines sensitive electronics, calibrated sensors and vibration-sensitive components with strict installation tolerances. A diagnostic scanner, an analytical instrument or a pharmaceutical production line may also be heavy, difficult to access and subject to manufacturer and regulatory requirements before it can return to service.

Specialist medical equipment movers plan each move around those constraints: the route, the lifting method, protection during transport, and the alignment and checks needed at the new location.

What equipment do medical equipment movers handle?

Medical imaging systems: MRI, CT and PET scanners, which combine heavy components with sensitive alignment requirements.
Therapy systems: linear accelerators, cyclotrons and proton therapy equipment.
Laboratory and diagnostic equipment: analytical instruments, testing equipment and scientific apparatus.
Pharmaceutical production equipment: fill-finish, inspection and packaging lines, autoclaves, lyophilisers and isolators.

Beck & Pollitzer relocates and installs equipment across all four areas, including MRI systems, as part of its life sciences and pharmaceutical work.

The medical equipment relocation process

1. Technical survey

A pre-move engineering survey checks floor loading, transit dimensions, access routes and the electrical and utility requirements at both locations. Manufacturer requirements for decommissioning, transport and recommissioning are confirmed at this stage.

2. Asset tagging and traceability

High-value components, fragile peripherals and connections are mapped and tagged so every part can be traced through the move and returned to the right position during reinstallation.

3. Rigging and transport

Lifting plans are prepared for each heavy or sensitive item, in line with the lifting regulations that apply where the work takes place. Transport is chosen to suit the equipment, including vibration-controlled vehicles where the manufacturer requires them. Heavy items such as scanners often have to pass through tight internal routes or be lifted through openings in the building.

4. Reinstallation and alignment

At the new location, the equipment is positioned, levelled and reconnected to its utilities. Where geometry and calibration are critical, precision measurement and alignment verify its position before the manufacturer or the client’s team completes recommissioning and validation.

Working in regulated and cleanroom environments

In pharmaceutical facilities and laboratories, the move has to respect the site’s contamination controls. This may include clean-build procedures, non-marking lifting equipment, controlled access zones and site-specific gowning requirements, depending on the cleanroom classification and facility procedures.

Where production is regulated under GMP or GDP, the move also needs documentation that supports traceability and audit-ready handover. Beck & Pollitzer teams work to each site’s procedures and coordinate closely with equipment manufacturers throughout.

Medical and lab equipment relocation checklist

Inventory: list every asset, including serial numbers and current calibration status.
Manufacturer coordination: confirm warranty requirements and any specialist decommissioning or recommissioning steps.
Utilities: identify power, gas, water and data requirements at the new site before the move.
Floor loading: confirm the new location can support heavy diagnostic or production equipment.
Contamination control: for cleanroom moves, agree clean-build procedures and gowning requirements.
Risk assessments and method statements: including plans for vibration control and fragile components.
Regulatory documentation: make sure activities are recorded for GMP or GDP requirements where they apply.
Contingency: agree downtime windows and backup arrangements for critical samples, data and services.

Large medical systems in practice

Some medical systems are as large as industrial machinery. On a proton beam therapy installation in Spain, Beck & Pollitzer handled more than 220 tonnes of equipment, using 400-tonne cranes to lift components in through the roof. The team also completed the mechanical, electrical and instrumentation integration and installed more than 40 km of cabling.

For individual assets and complete departments, medical equipment moves are delivered through Beck & Pollitzer’s machine relocation services.

Plant Decommissioning undertaken by Beck & Pollitzer

Plant and facility decommissioning: Engineering closure with safety, strategy and value

Written by bp-editorial on 26 February 2026. Posted in Article. No Comments on Plant and facility decommissioning: Engineering closure with safety, strategy and value

When an industrial site reaches the end of its operational life, whether through consolidation, relocation or permanent closure, the whole facility has to be taken out of service safely. Plant and facility decommissioning covers that full-site closure, from isolating utilities to handing the site over for its next use.

The decommissioning guide explains the overall process. This article focuses on what changes when the scope is an entire plant.

How is plant decommissioning different from equipment decommissioning?

Equipment decommissioning removes individual machines or lines while the rest of the site keeps running. Plant decommissioning covers the whole operational footprint: production equipment, utilities, building services, waste streams and the site itself. Because everything is being shut down, the work has to be sequenced across every system, and the end point is a site ready for sale, redevelopment, reuse or demolition.

Plant decommissioning checklist

These are the main areas to plan before closure starts:

Utility isolation: electrical distribution, compressed air, gas, steam and process fluids mapped and isolated, with stored energy discharged and verified.
Hazardous materials: surveys for asbestos, chemicals and process residues, and a plan for removing them.
Waste classification: waste streams identified, segregated and documented in line with environmental requirements.
Asset decisions: equipment marked for relocation, resale, storage or recycling before dismantling begins.
Structural and lifting plans: lifting strategies and structural checks for large equipment and any building elements being removed.
Handover requirements: the condition the site must be left in and the documents needed at handover.

Key stages of a plant closure

Utilities and energy isolation

Isolating a whole site is more complex than isolating one machine. Each utility network needs to be mapped so that isolations are carried out in the right order, stored energy is discharged and the result is verified and documented. Some services, such as lighting, fire protection and power for the decommissioning work itself, may need to stay live until late in the programme.

Environmental and regulatory controls

Environmental risk assessments identify residues and contamination from past operations. Waste is categorised and segregated so it can be recycled or disposed of correctly, and the records support regulatory sign-off at the end of the project. Requirements vary by country, so the plan has to follow the rules that apply where the site is located.

Asset recovery and relocation

Production lines, machinery and utility equipment can often be dismantled, protected and moved to another site. Where assets are being relocated, careful match-marking and packing protect their value, and the move can be planned alongside the closure through factory and plant relocation services.

Preparing the site for its next use

The final stage depends on the site’s future. It may need certified utility disconnections, environmental clearance, an industrial strip-out ahead of refurbishment, or full demolition. Agreeing this end state at the start shapes every earlier decision.

Plant decommissioning in practice

Recovering equipment for reuse is often a major part of a closure. For a press line dismantling project in the UK, Beck & Pollitzer match-marked, disconnected and dismantled a 2,000-tonne press, three 1,000-tonne presses, an end sheet feed system and inter-press handling robots, then packed every component for transport to India. The 16-week project was delivered with Beck & Pollitzer acting as Principal Contractor under the UK’s Construction (Design and Management) Regulations.

Closure programmes like this are delivered through Beck & Pollitzer’s decommissioning and dismantling services, with health and safety planning built in from the start.

How to choose a rigging company

Written by bp-editorial on 10 February 2026. Posted in Article. No Comments on How to choose a rigging company

When a project involves moving multi-tonne industrial equipment, the rigging contractor has a direct effect on safety, cost and programme. Whether the scope is a single machine or a complete production line, choosing the right company starts with knowing what a rigging company does and what to check before you sign.

What is a rigging company?

A rigging company is a specialised industrial engineering firm that designs and executes the lifting, moving and positioning of heavy machinery and oversized equipment. Rigging contractors plan and carry out lifts in complex environments, such as confined factory floors or elevated sites, using specialised equipment.

A professional rigging company typically provides site surveys, lift planning and the engineering needed to protect both the load and the facility during the move. For a deeper explanation of the techniques and roles involved, see our guide to rigging services and riggers.

Five qualities to look for in a rigging contractor

1. Documented safety management

Ask how lifts are planned and controlled. A capable contractor should be able to provide the risk assessments, method statements and lift plans required for the work, assign competent supervisors and share its safety record and certifications. Beck & Pollitzer works to ISO 45001, and health and safety planning is built into every lift.

2. Relevant sector experience

Rigging structural steel on a construction site is a different task from moving equipment in a cleanroom, a pharmaceutical line or a live automotive plant. Ask for examples of similar equipment and environments, and how the contractor handled the constraints involved.

3. Capability beyond the lift

Where lifting, positioning and installation are split between different contractors, the handover between scopes needs to be clearly defined. A rigging company that can also provide millwrights, mechanical fitters and electricians can position, level, align and connect equipment with one team accountable for the result.

4. Suitable equipment for the job

Hydraulic gantries, heavy-duty forklifts, machine skates and VersaLifts each suit different loads and spaces. Ask which equipment the contractor plans to use, whether it is owned or hired in, and how it is inspected and maintained.

5. The right insurance

Insurance cover should be checked against the work being carried out and the value of the equipment involved. Ask the contractor to confirm what cover applies while assets are in its care during rigging and transport.

Rigging company checklist

Before signing a contract, confirm that the contractor has:

carried out a site walk-through
mapped the load path, including floor load capacities
identified overhead obstructions, underground voids and services
provided a lift plan and method statement
confirmed a dedicated supervisor on site for the duration of the work
explained how the move will be coordinated around ongoing production
supplied insurance certificates and references for similar projects

Rigging in practice

Site conditions often decide how a rig is planned. In Boiling Springs, South Carolina, Beck & Pollitzer USA rigged two 1,600-ton injection moulding machines through a challenging elevated entry door. Using an 80k forklift, a 40/60 hoist lift and a 130-ton crane, a crew of five offloaded, levelled and aligned the machines over a 13-hour day in heavy rain.

Beck & Pollitzer is a member of the Specialized Carriers & Rigging Association (SC&RA), an international network of more than 1,400 companies in transport, machinery moving and rigging. Rigging is delivered as part of its machine relocation services, from the first lift to final positioning.

Beck & Pollitzer millwrights performing mechanical assembly

The comprehensive guide to millwrights: Definition, role, and importance

Written by bp-editorial on 26 January 2026. Posted in Article. No Comments on The comprehensive guide to millwrights: Definition, role, and importance

Millwrights carry out much of the mechanical work on industrial machinery installations, relocations and planned shutdowns. This guide covers the millwright definition, what millwrights do, where they work and how their role fits into a wider machinery project.

What is a millwright?

A millwright is a skilled industrial tradesperson who installs, assembles, aligns, dismantles and maintains machinery and mechanical equipment. The millwright definition covers a broad mechanical role that can include reading technical drawings, setting machinery to specified tolerances, fitting mechanical components and supporting machinery relocation or maintenance work. In plain terms, the millwright meaning is a mechanical specialist responsible for setting industrial machinery up correctly and keeping it in working order.

The term industrial millwright is commonly used for millwright work carried out in manufacturing, processing and other industrial environments. A mechanical millwright performs the same core mechanical activities, often alongside riggers, electricians, pipefitters, automation engineers and OEM technicians.

What does a millwright do?

A millwright’s work changes with the equipment and project, but the role typically covers the mechanical tasks required to install, move, modify or maintain industrial machinery.

Millwright job description and core duties

Machinery installation and assembly: assemble machine frames, guards, conveyors, process equipment and other mechanical components from drawings and manufacturer instructions.

Levelling and alignment: set machinery, rails, shafts, couplings and connected equipment to the tolerances required by the OEM or process design.

Mechanical fitting: install bearings, drives, rollers, shafts, belts, couplings and other mechanical components.

Dismantling and reassembly: take machinery apart in a controlled sequence for relocation, modification or maintenance, then rebuild it at the destination.

Maintenance and modification: replace or adjust mechanical components, support planned shutdown work and carry out defined modifications to existing machinery.

Installation-team support: work with riggers, electricians, pipefitters, controls engineers and OEM specialists as equipment moves through installation, testing and commissioning.

In practical terms, millwright work sits between heavy machinery movement and precision mechanical installation. The machine has to reach the correct position, then be assembled, levelled, aligned and mechanically prepared for connection and commissioning.

Industrial millwright services

Industrial millwright services support machinery throughout installation, relocation, shutdown and maintenance projects. Manufacturers may use specialist millwright contractors where the scope requires mechanical assembly, dismantling, fitting, levelling, alignment or reinstallation across one machine or a complete production line.

On installation projects, millwright teams can form part of a wider machinery installation programme, working alongside lifting, electrical and specialist engineering teams. For relocation work, the same mechanical skills are used to document assemblies, dismantle equipment, prepare components for transport and rebuild the machinery at the destination.

The exact millwright services required depend on the machine and project. A new production line may involve installation from OEM drawings and defined datum points, while a brownfield shutdown can involve restricted access, live production interfaces and a fixed restart date. On equipment already in service, millwright teams also carry out planned maintenance and shutdown support.

Why do alignment and levelling matter?

Machinery can be in the right place and still be outside its installation tolerances. Millwrights set bases, rails, shafts and couplings to the geometry the manufacturer specifies. Misalignment can contribute to vibration, accelerated wear and commissioning problems. Where tighter survey control is needed, precision measurement and alignment can verify position, level and geometry before handover.

Where do millwrights work?

Millwrights work across manufacturing and process industries wherever machinery needs to be installed, moved, modified or maintained. Typical environments include automotive plants, battery facilities, food and beverage production, metals processing, building products, life sciences, paper and packaging, warehouses and distribution centres.

The equipment can range from presses, conveyors and CNC machinery to robotic cells, process equipment, automated handling systems and complete production lines.

How is modern millwright work changing?

Modern industrial machinery combines mechanical systems with sensors, drives, automation and digital controls. Mechanical fitting and alignment remain central millwright skills, while coordination with electrical, controls, metrology and OEM teams has become increasingly important on automated production lines.

The US Bureau of Labor Statistics identifies apprenticeship as the typical training route for millwrights and describes the occupation as installing, dismantling, repairing, reassembling and moving machinery in factories, power plants and construction sites.

A millwright installation example

At a production facility in Žacléř, Czech Republic, Beck & Pollitzer installed two industrial presses weighing 110 tonnes and 40 tonnes, together with a washer and associated equipment. The work covered unloading, positioning and mechanical installation using a gantry system, VersaLift 40/60, 5-tonne forklift and cherry picker.

The project shows how millwright activity fits within a larger machinery installation: heavy equipment is first handled and positioned, then mechanically installed and prepared for the next stages of the programme.

Safety during millwright work

Millwright tasks can involve suspended loads, stored energy, work at height, confined access and interaction with electrical or process systems. Isolation procedures, lifting plans, defined work zones and trade coordination need to be established before work starts and maintained as the installation progresses.

These controls form part of wider health and safety planning for the site.

Equipment decommissioning services by Beck & Pollitzer

Equipment decommissioning: Safely retiring machinery and production lines

Written by bp-editorial on 25 November 2025. Posted in Article. No Comments on Equipment decommissioning: Safely retiring machinery and production lines

Industrial equipment is replaced, upgraded or retired long before the factory around it closes. Equipment decommissioning is the planned removal of individual machines or production lines from service, usually while the rest of the site keeps operating.

It differs from the full decommissioning process for a whole plant in one important way: the work happens next to live production. Isolation, access, lifting and housekeeping all have to be controlled so that neighbouring lines are not affected.

What does equipment decommissioning involve?

Equipment decommissioning usually follows five steps: deciding what will happen to each asset, isolating it from energy sources and services, dismantling it in a controlled sequence, removing it from the building, and recording what has been done. The same steps apply whether the scope is one machine or a complete production line.

1. Decide the future of each asset

Before any dismantling starts, each machine needs a defined route:

Relocation: moving the asset to another line or site, which requires careful dismantling, match-marking and protective packing. The production line relocation steps cover this route in detail.
Resale or storage: dismantling the machine so it can be reassembled in working order, or storing it for future use.
Recycling or disposal: separating materials and fluids so they can be recycled or disposed of in line with environmental requirements.

The route decides how carefully the equipment must be dismantled. A machine going for reuse needs every connection labelled and every component protected, while one going for scrap can be cut and separated.

2. Isolate energy and services

A machine being removed from a working factory has to be isolated as a separate island while the surrounding equipment stays live. That means disconnecting electrical supplies without affecting neighbouring panels, and draining or venting hydraulic oil, coolant, compressed air and other stored energy before work begins.

Lockout/tagout procedures and permits to work control this stage, and they form part of wider health and safety planning for the project.

3. Dismantle in a controlled sequence

Dismantling follows a sequence agreed before work starts. For equipment that will be reused, match-marking and labelling every connection point allows it to be reassembled accurately later.

In a live environment the sequence also has to account for dust, noise and vibration near sensitive equipment, and for keeping forklift and pedestrian routes open around the work area.

4. Remove the equipment from the building

Heavy machinery often sits in buildings that were built around it. Removal can require hydraulic gantries where cranes cannot reach, machine skates for floor moves, and access equipment suited to low headroom and narrow aisles. The safe machinery move guide explains how those lifts and moves are planned.

5. Record and hand back the area

Records should show what was isolated, removed, kept, sold or disposed of, so the area can be handed back for its next use and the asset register can be updated.

Equipment decommissioning in practice

Replacing a single machine can involve far more than the machine itself. During a hydraulic press dismantling project in the Czech Republic, Beck & Pollitzer removed a CXP-30MNB hydraulic press and the entire machine room beneath it to make way for a new press. Most parts were separated and containerised for scrap, while the heaviest component, weighing 35 tonnes, was kept and stored on site for future use.

Working 24/7 shifts with a 120-tonne mobile crane, a 12-tonne bridge crane and telehandlers, the team completed the work in nine calendar days. Larger programmes of this kind are delivered through Beck & Pollitzer’s decommissioning and dismantling services.

Data Centre Informational Guide by Beck & Pollitzer

What is a data centre? A complete guide to infrastructure, design and services

Written by bp-editorial on 22 July 2025. Posted in Article. No Comments on What is a data centre? A complete guide to infrastructure, design and services

Data centres support the digital services used every day, from cloud computing and online platforms to artificial intelligence. Behind those services is a combination of IT equipment and highly engineered power, cooling, connectivity and protection systems designed to operate under controlled conditions.

This guide explains what a data centre is, how a data centre works, the main types of data centres, the core components of data centre infrastructure, key data centre design considerations and the engineering involved in taking a facility from installation through to operational readiness.

What is a data centre?

A data centre is a facility designed to house and support computing infrastructure such as servers, storage systems and networking equipment.

The IT equipment is supported by electrical distribution, cooling, connectivity, backup power, fire protection, monitoring and security systems. Together, these systems provide the controlled environment needed to store, process and manage digital information reliably.

Data centres range from facilities supporting a single organisation to large colocation and hyperscale sites serving multiple customers or global digital platforms.

How does a data centre work?

A data centre works by bringing IT equipment and supporting infrastructure together within a controlled environment.

Power enters the facility through its electrical infrastructure and is distributed through equipment such as transformers, switchgear, uninterruptible power supplies (UPS), power distribution units and busbar systems. Backup systems provide additional resilience if the primary supply is interrupted.

At the same time, servers and other computing equipment generate heat. Cooling infrastructure, including chillers, HVAC systems and CRAC or CRAH units, removes that heat and maintains the temperature and humidity required for operation.

Network infrastructure connects the IT equipment internally and to external networks, while monitoring, fire protection and physical security systems protect the facility and its equipment.

The scale of this infrastructure is significant. According to the International Energy Agency, data centres consumed around 415 TWh of electricity in 2024, equivalent to approximately 1.5% of global electricity consumption.

Core components of data centre infrastructure

Data centre infrastructure combines several interdependent systems.

Electrical infrastructure

Electrical infrastructure can include transformers, LV and MV switchgear, UPS systems, generators, power distribution units, distribution boards and busbars.

Capacity, redundancy and distribution need to reflect the operating requirements of the facility while allowing equipment to be safely isolated, maintained and expanded.

Mechanical and cooling infrastructure

Cooling systems remove the heat generated by servers and other IT equipment. Depending on the facility, data centre infrastructure may include chillers, HVAC equipment, CRAC or CRAH units, pumps, pipework and ductwork.

Cooling design becomes increasingly important as equipment density and power demand increase.

Racks, cabling and white-space infrastructure

Server racks and cabinets provide the physical framework for IT equipment, while structured cabling provides data connectivity and busbars or other distribution systems deliver power.

Accurate equipment positioning is particularly important within white-space areas, where racks, containment, cable routes and services must align with the approved data centre design.

Backup and protection systems

UPS systems and generators provide backup power, while fire detection and suppression, monitoring and security systems add further protection.

Controlled cleanliness is also important during final installation. Dust, debris and uncontrolled construction activity can create avoidable risks around sensitive IT and electrical equipment, which is why health and safety planning is built into installation programmes from the outset.

Types of data centres

Different operating requirements have resulted in several common types of data centres.

Data centre type	What it is	Typical use
Enterprise data centre	A facility primarily operated for one organisation’s own infrastructure	Businesses requiring direct control of IT systems, capacity and security
Colocation data centre	A shared facility where organisations rent racks, cages or dedicated space	Businesses requiring data centre capacity without operating the whole facility
Hyperscale data centre	A very large facility designed for extensive cloud and computing workloads	Major cloud, technology and digital service providers
Edge data centre	A smaller facility positioned closer to users, connected equipment or data sources	Applications requiring lower latency and local processing

These categories describe different operating models, and the engineering design varies between them. Power density, cooling requirements, resilience and physical layout can vary considerably between individual facilities.

Data centre design

Effective data centre design starts with the operating requirements the facility needs to support.

Capacity and scalability

Power, cooling, rack layout and available floor space need to account for both current requirements and planned growth. Allowing for future capacity can reduce the need for major infrastructure changes later.

Redundancy and resilience

Critical power and cooling systems may require redundant components or distribution paths so maintenance or individual equipment failures do not automatically interrupt IT operations.

The appropriate degree of resilience depends on the facility’s business requirements and risk profile.

Energy efficiency

Cooling strategy, electrical efficiency, equipment selection and operating conditions all affect energy consumption.

With data centre electricity demand increasing globally, energy performance has become an important consideration in data centre design services as well as ongoing operation.

Layout and access

Physical layout influences both construction and long-term maintenance.

Heavy equipment such as UPS units, switchgear, generators and chillers needs defined delivery, lifting and maintenance routes. White-space infrastructure requires accurate setting-out so racks, electrical distribution, containment and cabling align with the design.

These requirements also affect how contractors, equipment manufacturers and specialist trades are sequenced during construction and fit-out.

From data centre design to installation

Once the design is established, the project moves into the physical installation and integration of the data centre infrastructure.

Data centre installation services can include specialist lifting and rigging, switchgear and UPS positioning, busbar installation, electrical distribution, HVAC and chiller installation, server cabinet positioning, cable management and preparation for testing and commissioning.

Multiple contractors, OEMs and specialist trades can be working within the same areas while the programme progresses towards a fixed commissioning or go-live date. Heavy equipment movements, live or partially energised systems, restricted access, cleanliness requirements and overlapping work packages therefore need to be controlled within the installation programme.

Beck & Pollitzer supports this stage through its data centre installation services, with project management coordinating the interfaces between contractors, equipment, programme requirements and site operations.

Where precise equipment positioning is required, precision measurement and setting-out can support floor marking, alignment and verification against the approved design.

Project proof: data centre installation in Madrid

At a data centre in Madrid, Beck & Pollitzer has carried out the installation of switchgear and control panels, covering positioning, electrical connection and testing.

The work progressed from red tagging to isolate electrical sources for safe working through to green tagging once systems were operational. The project also required high cleanliness standards and close coordination with the general contractor and client as building readiness and component availability changed.

The project shows how electrical installation, safety controls, quality requirements and programme coordination come together within a live data centre delivery environment.

Testing, commissioning and operational readiness

Installation is followed by inspection, testing and preparation for commissioning.

Mechanical completion checks confirm that equipment and systems have been installed against the design and specification. Electrical testing can include continuity and insulation resistance checks, while inspection records and documentation provide evidence of completed work.

Testing also identifies installation issues before they become constraints during commissioning or integrated systems testing.

The transition into data centre commissioning brings the individual electrical, mechanical and control systems together to demonstrate that they perform as intended before the facility becomes operational. Beck & Pollitzer also provides commissioning support as part of its wider engineering and data centre delivery capability.

Handover documentation, as-built information and test records then provide the operations team with the information required to manage and maintain the infrastructure after go-live.

Industrial decommissioning process guide.jpg

Decommissioning: Process, purpose, key stages & considerations

Written by bp-editorial on 6 February 2025. Posted in Article. No Comments on Decommissioning: Process, purpose, key stages & considerations

What is decommissioning?

Decommissioning is the planned, safe and compliant process of taking industrial facilities, plants or equipment out of operation. It can involve anything from retiring a single piece of machinery to closing down an entire factory site.

In practical terms, the meaning of decommissioning extends beyond switching equipment off. To decommission an asset is to retire it formally and plan what happens to it next. A decommissioned asset may need to be isolated, cleaned, dismantled, removed, prepared for reuse, recycled or disposed of, depending on its condition and the future use of the site.

What is the purpose of decommissioning?

The purpose of decommissioning is to safely retire industrial plants, infrastructure and equipment while ensuring environmental protection, regulatory compliance and worker safety. Proper site decommissioning helps prevent pollution, prepares land for future use and reduces financial and legal risk for the business. A planned decommissioning programme also gives the owner time to decide which equipment will be relocated, sold, reused, donated, recycled or disposed of.

The global industrial facility decommissioning and remediation market was estimated at USD 14.37 billion in 2025 and is forecast to reach USD 22.51 billion by 2031, with a CAGR of 7.77%, according to TechSci Research.

What is the decommissioning process?

The decommissioning process varies with the asset and site, but most industrial projects move through five main stages.

1. Phase-out. Phase-out is often the first step in the decommissioning process. Activity is reduced in a planned sequence before full shutdown. Production may be transferred, staff retrained and reusable equipment identified before dismantling begins.

2. Planning and preparation. The decommissioning scope is defined first, followed by risk assessment, isolation planning, permits and stakeholder communication. Relevant parties can include employees, contractors, local authorities, regulators and neighbouring site users. Hazard reviews may need to consider asbestos, chemicals, contaminated residues or radioactive substances, depending on the facility. Budgeting should cover every stage, from planning through to site restoration.

3. Dismantling. Machinery, pipework, services and structures are removed in a controlled sequence. Reusable assets can be match-marked and prepared for relocation, while waste streams are separated for recycling or disposal. Industrial dismantling may involve specialist methods such as encapsulation, decontamination or controlled removal where hazardous or contaminated materials are present.

4. Demolition. Where the project includes structural removal, buildings or foundations are taken down using a planned demolition sequence. This stage requires specific controls around structural stability, exclusion zones and falling material.

5. Site restoration. The final stage of site decommissioning addresses residual contamination, waste and the condition of the site so it can be handed back, sold or prepared for its next use.

How is safety managed during decommissioning?

Safety requirements for decommissioning, dismantling and demolition vary by country, and each project must be planned against the rules that apply where the work takes place.

In the European Union, Directive 92/57/EEC sets minimum safety and health requirements for construction sites, and its scope includes dismantling and demolition work. In the United States, OSHA 29 CFR 1926.850 requires a competent person to survey the structure before demolition begins, with written evidence that the survey was completed.

Across jurisdictions, the core practical controls are consistent. Hazards are identified before work starts, energy sources are isolated and locked off, and each lift or removal follows an approved method statement. Work zones are separated from live operations, and the sequence is reviewed as site conditions change.

Where multiple trades, contractors and site operations overlap, project management must control sequencing, interfaces, access and handover points.

A live-production strip-out example

At an automotive plant in Hungary, Beck & Pollitzer removed around 800 tonnes of body-shop machinery, including more than 200 robots and associated equipment, while the rest of the factory remained in production. Teams from Hungary and Slovakia completed the work in 11 weeks, and some removed robots were donated to universities.

Types of decommissioning

Depending on the scope and objectives, decommissioning can take several forms.

Type	Typical scope
Plant & facility decommissioning	Closure of an entire industrial site, including shutdown, equipment removal and preparation for handover or redevelopment.
Equipment decommissioning	Retirement of individual machines or production lines while other parts of the facility remain operational.
Industrial strip-out	Removal of internal equipment, services, fixtures and non-structural elements ahead of reuse or refurbishment.
Industrial demolition	Controlled removal of buildings, structures and foundations.
Dismantling for relocation	Careful disassembly and preservation of equipment for reinstallation at another site.

Key decommissioning considerations before work starts

Asset decisions: Identify which assets will be relocated, sold, reused, donated, recycled or disposed of before dismantling starts, because each route changes how equipment should be disconnected, handled and packed.

Environmental controls: Confirm waste streams, hazardous materials, contamination risks and any remediation requirements before physical removal begins.

Site interfaces: Check which areas remain live, how contractors will enter and leave the site, and where isolation boundaries and exclusion zones are required.

Documentation: Keep isolation records, dismantling sequences, asset lists, photographs and handover information aligned with the programme.

What is Industry 4.0? An overview of the Fourth Industrial Revolution

Written by bp-editorial on 19 November 2024. Posted in Article. No Comments on What is Industry 4.0? An overview of the Fourth Industrial Revolution

Industry 4.0, also known as the Fourth Industrial Revolution, has reshaped how factories and supply chains operate over the past decade, moving from isolated automation toward connected, data-driven production. This article covers where the term came from, the core technologies behind it, and what adopting it involves on a production floor.

The origin of Industry 4.0

The term “Industry 4.0” was first introduced in 2011 at the Hannover Fair, a major trade show in Germany. It marked the beginning of a strategic initiative to drive digital transformation across industries. The name refers to the fourth wave of industrial evolution:

First Industrial Revolution: mechanisation powered by water and steam engines.

Second Industrial Revolution: mass production driven by electricity and assembly lines.

Third Industrial Revolution: automation enabled by computers and electronics.

Fourth Industrial Revolution: smart and autonomous systems driven by data, AI and connectivity.

Its roots date back to 2011, but widespread adoption has accelerated over the past decade as the underlying technologies have matured.

What is Industry 4.0?

Industry 4.0 refers to the integration of digital and physical systems in industries, connecting devices and intelligent systems so they can share data in real time. These technologies use that data to optimise operations and support faster, better-informed decisions across a production line or facility.

Key Industry 4.0 technologies

A number of technologies form the backbone of Industry 4.0:

Internet of Things (IoT). Connects devices, sensors and machinery across manufacturing processes so they can communicate and share data. This enables real-time monitoring, predictive maintenance and automated adjustments, for example sensors on a production line detecting anomalies and alerting operators before a breakdown occurs.

Artificial Intelligence (AI). Enables machines to learn, adapt and make decisions from the data collected by sensors and equipment, supporting predictive maintenance, defect detection and production scheduling. AI-powered vision systems, for example, can be used to inspect products for flaws.

System integration and robotics. Modern robotics automates repetitive, high-precision tasks. Collaborative robots, or “cobots”, work alongside people and adapt to changing conditions, increasing production speed and reducing errors while freeing up workers for more complex tasks.

Cloud computing. Provides the backbone for data storage and processing, letting businesses access and analyse data remotely, share insights across teams and locations in real time, and scale resources up or down as operations require.

Big data analytics. Processes the large volumes of data generated by IoT devices and other systems, helping identify inefficiencies in production, monitor supply chain performance, and support decisions such as optimising energy usage or reducing waste.

Additive manufacturing (3D printing). Allows complex, custom parts to be produced quickly, supporting rapid prototyping and small, tailored production batches.

Augmented reality (AR) and virtual reality (VR). Support employee training, equipment maintenance and complex task execution through immersive simulations that build skills without risking real equipment.

Cybersecurity. Protects sensitive data, intellectual property and operational systems as facilities become more interconnected, and is a growing priority as Industry 4.0 adoption increases.

Why Industry 4.0 matters for manufacturing

Industry 4.0 brings several practical benefits to manufacturing operations:

Efficiency: automated processes reduce production time and resource waste.

Quality: sensors and AI support more consistent output.

Customisation: flexible production systems enable smaller, tailored production runs.

Cost: predictive maintenance and optimised supply chains reduce unplanned expense.

Sustainability: more efficient resource management reduces environmental impact.

Beyond manufacturing: Industry 4.0 across industries

Industry 4.0’s influence extends well beyond manufacturing. Retail, healthcare, logistics and energy sectors are also adopting these technologies to improve productivity:

Healthcare: AI-powered diagnostics, remote monitoring and personalised medicine.

Energy: optimised energy consumption, smart grids, and renewable integration.

Transportation: autonomous vehicles, traffic optimisation, and logistics improvements.

Agriculture: precision techniques that improve yield and sustainability.

From concept to production floor

Deloitte’s 2025 Smart Manufacturing and Operations Survey found that 92% of manufacturing executives believe smart manufacturing will drive competitiveness over the next three years. Turning that intent into a working system still involves physical work. Connected, automated equipment has to be positioned, wired, commissioned and integrated with existing machinery, and that work carries its own sequencing and safety requirements.

When Beck & Pollitzer installed an automated warehouse for a dairy producer, the system was designed to operate at minus 27 degrees Celsius. A team of 45 installation specialists worked with less than 50 mm of clearance between the stacker crane and the ceiling, and the project was completed on time.

The NIST Manufacturers’ Guide to Industry 4.0 Technologies notes that adopting these technologies also requires workforce upskilling, so existing teams gain the competencies needed to get full value from new equipment. The same applies during installation and commissioning, when operators and maintenance teams first work with the new systems.

Industrial electrical installations and testing

Essential components of industrial electrical installations

Written by bp-editorial on 21 September 2024. Posted in Article. No Comments on Essential components of industrial electrical installations

Industrial electrical installations distribute power through a manufacturing or process facility and connect the machinery, controls, lighting and supporting systems needed for production. A complete installation combines power supply, distribution, protection, control equipment, cabling, earthing and verification within one coordinated design. The essential components are the power supply, distribution system, electrical equipment and controls, cabling and wiring, and grounding and earthing.

Electricity use is rising worldwide. The International Energy Agency forecasts that global electricity demand will grow by an average of 3.6% a year between 2026 and 2030, supported by rising consumption from industry, electric vehicles, air conditioning and data centres.

What are the key elements of industrial electrical installations?

1. Power supply

Transformers: change voltage levels to suit the site’s distribution system and connected equipment.

Switchgear: controls, isolates and protects electrical circuits, allowing parts of the installation to be operated or made safe.

Generators: can provide standby or site-specific power where the facility design requires backup generation.

2. Distribution systems

Busbars and busbar trunking: distribute electrical power through plant areas and can provide high-capacity feeds to production equipment.

Cable trays, ladders and conduits: support and protect power, control and signal cabling while keeping routes accessible for inspection and modification.

Circuit breakers and protective devices: interrupt circuits under defined fault or overload conditions and form part of the installation’s protection strategy.

3. Electrical equipment and controls

Motors: convert electrical energy into mechanical motion for machinery, pumps, fans, conveyors and other driven equipment.

Control panels: house switching, protection, relays, contactors, drives, instrumentation and automation interfaces used to operate machinery.

Lighting systems: provide task, general and emergency illumination appropriate to the work area and site safety requirements.

Industrial wiring and cabling: connect distribution and control systems to machinery, motors, sensors, drives and auxiliary equipment.

4. Grounding and earthing

Grounding and earthing, together with protective bonding, provide controlled fault-current paths and help prevent exposed conductive parts from remaining at a dangerous voltage. Terminology and detailed arrangements vary by jurisdiction, supply system and installation design.

How is power distributed through an industrial facility?

Power enters the facility through the site supply and is transformed or distributed at the voltage levels required by the operation. Switchgear, busbars and distribution boards divide the supply into circuits serving production lines, utilities, building systems and specialist equipment.

The design has to account for connected load, fault protection, isolation, maintainability, future modification and the sequence in which production equipment will be energised and commissioned.

Why do cable routing and segregation matter?

Cable containment protects industrial electrical wiring and keeps routes accessible, but route planning also affects electromagnetic compatibility, fire strategy, heat exposure, mechanical protection and maintenance access. Power, control and signal circuits may require segregation in line with the system design.

Electrical routes also compete for space with pipework, ventilation, steelwork, conveyors and access systems, so interfaces should be resolved before installation crews reach the same area.

What role do control panels and automation systems play?

Control panels connect the fixed electrical installation with the machinery’s operating and automation systems. On automated lines, the installation can include motor supplies, variable-speed drives, sensors, safety circuits, networked controls and connections to robotic or material-handling equipment.

The physical installation must follow the electrical design and OEM documentation so the system is ready for inspection, software integration, testing and commissioning.

What factors should be considered in an industrial electrical installation?

Safety: select equipment, protection, isolation and working methods for the electrical and site hazards involved.

Capacity: size supplies, distribution and protection for the connected load and expected operating conditions.

Reliability: consider fault protection, environmental conditions, maintainability and the effect of electrical failures on production.

Future change: allow for planned production changes, spare capacity or expansion where these are part of the design brief.

Site environment: account for dust, moisture, heat, vibration, chemicals, washdown requirements and other conditions that affect equipment and cable selection.

What happens before an industrial electrical system is handed over?

Installation is followed by inspection, testing and verification appropriate to the system and jurisdiction. The aim is to confirm that circuits, components, protective measures, connections and documentation meet the design and safety requirements before energisation and operation.

On machinery projects, electrical completion must also align with mechanical completion and OEM commissioning. Guards, isolators, control circuits, utilities, interfaces and commissioning responsibilities all need to be ready in the agreed sequence.

Industrial electrical installation in practice

Industrial electrical work often progresses alongside mechanical assembly, equipment positioning and commissioning. On a Continuous Vulcanisation line in Karlskrona, Sweden, Beck & Pollitzer delivered the electrical installation inside a 200-metre production tower.

The work included power and signal cable segregation, cable trays, dynamic equipment cabling, cable verification and insulation testing, together with electrical interfaces for extruders, heating transformers, pay-offs, take-ups and other process equipment. Approximately 1,500 cables were pulled and connected across 22,000 project hours.

Projects of this type require electrical work to be planned around the wider machinery and production-line installation. Depending on the equipment and site, the scope can include cable containment, cable pulling and termination, distribution, machinery connections, control-panel work, testing and commissioning support.

Electrical teams work alongside mechanical installers, millwrights, riggers, pipefitters, OEM engineers and commissioning teams so that mechanical and electrical activities are completed in the required sequence. For projects in the UK, Beck & Pollitzer is a NICEIC Approved Contractor.

Conveyor installation: A step-by-step guide

Written by bp-editorial on 9 September 2024. Posted in Article. No Comments on Conveyor installation: A step-by-step guide

Conveyor installation turns a conveyor design into a working material handling system. It covers site evaluation, conveyor assembly, electrical and control connections, testing and commissioning, carried out in a sequence that keeps each stage ready for the next.

This guide sets out the installation steps for industrial conveyor systems in manufacturing plants, warehouses and distribution centres. For an overview of conveyor types and how they are used, see our conveyor systems guide.

What does conveyor installation involve?

A conveyor system installation normally follows six stages: site evaluation, design and planning, safety planning, mechanical installation, electrical installation, and testing and commissioning. Mechanical and electrical work often overlap on larger systems, so the sequence needs to be agreed before the first section arrives on site.

Conveyor installation steps

1. Evaluate the site

Assess the installation area against the conveyor layout. Confirm the available space, the workflow the system has to support and how it will connect to existing equipment. Check that the floor or supporting structure can carry the weight of the conveyor and its operational loads, and that power, compressed air and other utilities are available where they are needed.

Delivery routes also need checking. Long conveyor sections, drive units and mezzanine steelwork have to reach the installation area without blocking other work.

2. Confirm the design and installation plan

Work with the system designer and conveyor manufacturer to confirm the design against operational requirements and safety standards. The installation plan should set out timelines, resources, the order in which sections are installed and the main risks.

On larger or multi-trade projects, a project manager can oversee the installation sequence, interfaces and changes from start to finish. Project management provides one point of control where several trades and suppliers are working to the same programme.

3. Plan safety features and site controls

The design should include safety features such as emergency stops, guarding and sensors, and comply with the safety standards that apply where the system is installed. In Europe, for example, EN 620:2021 sets safety requirements for fixed belt conveyors that carry bulk materials.

The installation itself needs its own controls: lifting plans for heavy sections, permits for electrical and hot work, exclusion zones and safe access for work on elevated conveyors and platforms.

4. Mechanical installation and conveyor assembly

Mark out the conveyor route, then level the floor fixings and install any guideways. Conveyor assembly follows: frames, drives, motors, belts or rollers and transfer units, connected section by section to the manufacturer’s instructions.

Supporting structures such as mezzanines, platforms, pillars and cable tray supports are installed as the layout requires. Sections are then aligned so belts track correctly and products transfer smoothly between units.

5. Electrical installation

Install control panels, cable containment, sensors and wiring, and connect the conveyor to the wider control and automation system. The control system is then configured so the conveyor operates as designed, and electrical connections are tested before power-up.

On large systems the electrical scope can be substantial. For an automated warehouse in Warrington, Beck & Pollitzer installed 6,500 metres of electrical containment on conveyor systems, alongside 20 PLC cabinets and 88 miles of control cable.

6. Test, commission and hand over

Run the conveyor empty first, then introduce loads gradually to confirm that it handles operational demands. Record and resolve any issues found during testing. Before handover, operators and maintenance staff should be trained on running and maintaining the system safely, and test results and settings should be included in the handover documentation.

Conveyor installation in practice

On larger automation programmes, the installation method has to work consistently across multiple sites.

For a returning automotive tyre client, Beck & Pollitzer carried out warehouse automation installations at four facilities in Germany and Spain, including conveyor guideways, conveyor assembly, platforms and electrical works across more than 200,000 hours.

Conveyor installations of this kind often form part of a wider warehouse automation scope. Beck & Pollitzer’s machinery installation services bring conveyor assembly, electrical installation and commissioning support together under one team.

Comprehensive conveyor systems guide: Boosting efficiency and safety

Written by bp-editorial on 18 July 2024. Posted in Article. No Comments on Comprehensive conveyor systems guide: Boosting efficiency and safety

Conveyor systems provide controlled material flow through manufacturing plants, warehouses and distribution centres, reducing reliance on manual handling. This guide explains how conveyor systems work, the main types, where they are used and what to consider when choosing one.

What is a conveyor system?

A conveyor system is a mechanical handling system that moves materials or products from one point to another within a facility. It uses frames combined with belts, rollers, chains, air or overhead tracks, driven by motors or by gravity, to carry loads between stages of production, storage or distribution.

Types of conveyor systems

The right type depends on what is being moved, how far, how fast and in what environment. These are the most common conveyor types:

Belt conveyors

Belt conveyors use a continuous belt, made from materials such as rubber, PVC or fabric, to carry products of different shapes and sizes. They can be designed with inclines and curves to suit complex layouts and are widely used in food processing, manufacturing and mining.

Roller conveyors

Roller conveyors move items along a series of rollers, either powered or using gravity. They suit cartons, totes and heavier unit loads, and their modular construction can allow systems to be extended or reconfigured as requirements change. Typical applications include warehousing, logistics, packaging and automotive assembly.

Chain conveyors

Chain conveyors use chains driven by sprockets to move pallets, containers and large industrial parts. They are built for heavy loads and harsh environments, making them suitable for automotive and other heavy manufacturing applications.

Pneumatic conveyors

Pneumatic conveyors use air pressure or vacuum to move bulk materials such as powders and granules through enclosed pipes. Their enclosed design suits pharmaceutical, food and chemical processing, and they can be configured for dense or dilute phase conveying.

Overhead conveyors

Overhead conveyors carry items on an overhead track, keeping the floor clear for other operations. They can move loads between levels and around obstacles. Typical applications include automotive assembly lines and paint shops.

The main differences at a glance:

Conveyor type	How it moves loads	Typical uses
Belt conveyor	A continuous belt driven over pulleys	Food processing, manufacturing, mining, parcels and cartons
Roller conveyor	Powered rollers or gravity	Cartons, totes and heavier unit loads in warehousing, packaging and assembly
Chain conveyor	Chains driven by sprockets	Pallets, containers and heavy parts, including automotive manufacturing
Pneumatic conveyor	Air pressure or vacuum through enclosed pipes	Powders and granules in pharmaceuticals, food and chemicals
Overhead conveyor	Carriers running on an overhead track	Automotive assembly, paint shops and lines where floor space is limited

Where are conveyor systems used?

Manufacturing: moving raw materials, parts and finished products between production stages, in continuous or batch processes.
Food and beverage: transporting ingredients and packaged goods with equipment designed to meet hygiene requirements.
Mining and heavy industry: carrying bulk materials such as coal, ores and minerals to processing plants and stockpiles.
Warehousing and distribution: sorting, packing and dispatching goods, often as part of wider warehouse automation systems.
Automotive: moving bodies, components and heavy assemblies along production and paint lines.

Benefits of conveyor systems

Throughput: loads move at a consistent rate between stages, which helps production keep pace with demand.
Safety and ergonomics: less manual handling can reduce repetitive lifting and carrying of heavy or awkward items.
Lower handling costs: automated movement can reduce the labour needed for repetitive transport tasks.
Flexibility: modular systems can be extended or reconfigured as production needs change.
Space use: inclined, vertical and overhead conveyors make use of height as well as floor area.

What to consider when choosing a conveyor system

Load and throughput: the weight, size and shape of the items being moved, and the rate the system has to achieve.
Layout and integration: the route through the facility and how the conveyor connects to existing equipment and control systems.
Safety features: emergency stops, guarding and sensors, designed to the safety standards that apply where the system is installed.
Installation: site readiness, sequencing, electrical connections and testing. Our step-by-step guide to conveyor installation covers each stage in detail.
Maintenance: routine inspection, belt and roller replacement and planned maintenance to keep the system running reliably.
Future capacity: whether the design allows the system to be extended if volumes grow.

Beck & Pollitzer installs conveyor systems as part of its machinery installation services, from mechanical assembly and electrical connection through to testing and commissioning support.

Guide to Successfully Moving a Warehouse

Warehouse relocation services: a guide to minimising disruption

Written by bp-editorial on 14 March 2024. Posted in Article.

Warehouse relocation is the process of moving inventory, racking, equipment and systems from one facility to another while keeping fulfilment running throughout. Done well, it follows a phased, sequenced plan spread across multiple stages.

A warehouse relocation touches every part of daily operations, from inbound receiving and order fulfilment to the systems and people that keep them running. For the team responsible for that continuity, the risk comes from sequencing, safety and communication that aren’t planned together from the outset, more than from the move itself.

Drawing on more than 160 years of engineering and relocation experience, and 50M+ hours of installation work across industrial sites worldwide, here’s how we approach warehouse moves so operations stay on track.

Building the warehouse relocation plan

A warehouse relocation starts with programme alignment, not a moving date. Before committing to a timeline, assess current and future storage requirements against the new facility’s layout, capacity and access constraints, since a mismatch discovered mid-move is far more disruptive than one caught during planning. From there, build a detailed schedule covering equipment relocation and staff training alongside the milestones that connect them, and set a communication plan so customers, suppliers and staff know what to expect well ahead of moving day.

Preparing for a controlled warehouse move

Preparation determines how much of the move goes to plan. A full inventory audit and validation exercise, checking what exists against what’s recorded, prevents items being lost or misplaced in transit. Equipment, racking and stock should be clearly labelled and match-marked for efficient identification and reassembly at the new site, and sequencing should reflect operational priority rather than convenience.

Warehouse relocation checklist

A relocation checklist keeps the moving parts visible across a warehouse move of any scale:

New warehouse site readiness confirmed against layout and capacity requirements
Inventory audit and validation completed
Detailed sequencing and moving plan in place, covering equipment and staff training milestones
Customers and suppliers notified ahead of the move date
IT infrastructure and warehouse management system cutover planned
Utilities confirmed and connected at the new site
Staff trained on the new layout before go-live

A checklist only works if it reflects a sequencing plan built around your operation’s actual priorities, not a generic template.

Keeping safety at the centre of the move

Health and safety oversight sits inside relocation planning from the outset, not as a separate workstream added later. Rigging and dismantling of racking, conveyor and automated storage systems carries its own risk profile. Electrical isolation, lockout/tagout procedures, controlled lifting for oversized equipment and clear demarcation of active work zones all need agreeing before the first item moves, not improvised on the day. Our approach to health and safety is aligned to ISO 45001, and every relocation project carries dedicated oversight from mobilisation through to handover.

The risk this addresses is real: handling, lifting and carrying account for around 17% of all non-fatal workplace injuries in Great Britain, according to HSE injury data.

Minimising disruption during warehouse moves

Continuity depends on sequencing decisions made well before moving day. A phased relocation, scheduling around off-peak periods, and close coordination with warehouse management systems and IT infrastructure all reduce the risk of fulfilment gaps during warehouse moves of any size.

Warehouse relocation services from Beck & Pollitzer

Our machine relocation service covers the full scope of a warehouse move: packing and dismantling, transportation, and reinstallation, coordinated by one team from planning through to commissioning rather than handed between contractors along the way.

Once the relocation itself is complete, ongoing storage, layout and day-to-day operations sit with our logistics and warehousing service.

Project management and a single point of accountability

Multiple disciplines come together in any warehouse relocation: mechanical, electrical, IT and site logistics, often with several contractors and the client’s own operations team involved at once. Our project management approach keeps planning, scheduling and delivery under one point of accountability throughout, with interface management between trades built into the programme rather than left for the client to resolve mid-move.

Relocation experience that carries through to commissioning

This is the same discipline we’ve applied on complex, live-site relocations, including a recent expansion of an active, space-constrained warehouse that required coordinating a four-country team to install and commission 80 sorting stations and induct more than 350 autonomous robots, with most equipment moved, unpacked and installed within a single day. The same principle applies at any warehouse scale: one point of accountability, from the initial site assessment through to reinstallation and commissioning support.

Essential-steps-for-a-successful-industrial-installation

Key steps for a successful machinery installation

Written by bp-editorial on 6 October 2023. Posted in Article. No Comments on Key steps for a successful machinery installation

Machinery installation, also called machine installation or equipment installation, takes industrial equipment from delivery through assembly, positioning, connection, testing and handover. A successful installation depends on the site being ready, the lifting and assembly sequence being planned, and each mechanical, electrical and utility interface being completed in the correct order.

What is machinery installation?

Machinery installation is the process of assembling, positioning and configuring industrial machinery and equipment within a designated area. It can include unloading, mechanical assembly, alignment, power and utility connections, testing, calibration and commissioning support.

Robotics gives one measure of how much new machinery factories are installing. According to the International Federation of Robotics, factories installed more than 600,000 new industrial robots in 2025, 11% more than the year before, and annual installations are forecast to reach 655,000 units in 2026.

What is the procedure for machinery installation?

Most industrial installations follow the same six-step installation procedure, whether the project is a single new machine installation or a complete production line.

1. Planning and preparation

Before physical work begins, the installation team reviews equipment specifications, drawings, site conditions, access, lifting requirements, foundations, utilities and the project sequence. Where several work packages overlap, planning and coordination across trades and OEM teams can be managed within one programme.

2. Site preparation

Clear the installation area and confirm that foundations, floor capacity, access routes, ventilation and utilities are ready for the equipment. Space is also needed for temporary storage, assembly, lifting equipment and future maintenance access.

3. Unloading and transport to position

Unload the machinery using lifting equipment selected for the verified load and move it to the installation area using certified lifting gear and an approved movement plan.

Lifting rules differ by country. In the European Union, Directive 2009/104/EC requires lifting operations to be properly planned, appropriately supervised and carried out safely. For crane operations, ISO 12480-1:2024 sets out general safe-use practices covering planning, equipment selection, operation and the roles of operators, slingers and signallers.

4. Assembly and alignment

Assemble the machinery to the manufacturer’s instructions, then level and align it to the required tolerances. Checks may include base level, rails, shafts, couplings, machine centres and the relationship between connected equipment.

Where the tolerance demands it, precision measurement and laser alignment can verify the installed position before final fixing and connection.

5. Connection and integration

Connect electrical power, controls, hydraulic systems, compressed air, cooling water, process pipework and other utilities defined by the equipment design. Connections should follow the manufacturer documentation and the site’s isolation, testing and permit procedures.

6. Testing, calibration and commissioning support

Test mechanical movement, safety devices, controls and connected systems before production handover. Sensors, drives and instruments may require calibration, while OEM commissioning teams can complete software, recipe or process-specific checks.

Final machine setup then covers the settings, tooling and parameters the equipment needs for its first production run.

What are the responsibilities of a machinery installer?

A machinery installer is responsible for the installation of machinery and equipment, from the first lift to handover. The main responsibilities are:

Technical preparation: Understand the equipment drawings, manufacturer requirements, tolerances and installation sequence.

Safe execution: Follow the lifting plan, site controls, permit systems and PPE requirements that apply to the work.

Precision: Complete assembly, levelling, alignment and connection work to the required specification.

Documentation: Record measurements, configuration, inspections and test results needed for handover and future maintenance.

Communication: Coordinate with OEM representatives, electricians, riggers, pipefitters, supervisors and the client team as interfaces are completed.

Machinery installation checklist

Use this equipment installation checklist to confirm that each stage is complete before the next one starts.

Before delivery

Equipment drawings, manuals and installation sequence reviewed
Foundations, floor capacity and anchor points confirmed
Access route, door openings and lifting zone checked
Power, compressed air, water and other utilities ready at the connection points
Lifting plan, method statement and permits approved

During installation

Lifting equipment and certified lifting gear inspected before use
Machine positioned, levelled and aligned to the required tolerance
Electrical, hydraulic, pneumatic and process connections completed and checked

Before handover

Guards, safety devices and emergency stops tested
Sensors, drives and instruments calibrated
Measurements, settings and test results saved in the handover file
OEM commissioning and production sign-off arranged

Managing scope growth on a large programme

At a battery facility in Kansas, Beck & Pollitzer’s mechanical and electrical installation scope expanded by 76% during a 15-month programme. The site involved up to 50 concurrent contractors. The final scope included two automated storage and retrieval systems, precision installation and alignment of 17 storage and retrieval machines, and more than 1,500 linear feet of STV tracks and automated conveyors. More than 111,328 project hours were delivered with zero recordable safety incidents.

Industrial machinery installation experience

Beck & Pollitzer provides machinery installation services for individual machines, complete production lines and large new manufacturing facilities. Depending on the project, the delivery team can include millwrights, riggers, electricians, pipefitters, supervisors and specialist engineers.

10 Tips for a seamless production line relocation process

Written by bp-editorial on 7 August 2023. Posted in Article. No Comments on 10 Tips for a seamless production line relocation process

A production line relocation moves interconnected machinery, controls, utilities and supporting equipment from one operating position to another, either within the same facility or to a different site. A successful move depends on surveying, documenting, isolating, dismantling, packing, moving, reinstalling, aligning, reconnecting and testing the line in a sequence that protects the restart date.

The ten steps below focus on the physical and operational work involved in relocating a production line. For a wider move involving an entire site, workforce, utilities and business operations, see our guide to factory relocation planning.

How do you relocate a production line?

A production line is normally relocated through ten linked stages: define the scope, survey and document the existing line, prepare the destination, plan the move sequence, isolate and dismantle equipment, protect and transport components, reinstall the line, reconnect services, verify alignment and interfaces, then test the complete system before production restarts.

1. Confirm what is moving and the restart date

Confirm exactly what is moving, where it is going and when the line has to return to production. The scope should identify machinery, conveyors, guarding, controls, utilities, tooling, spares and ancillary equipment.

Fixed shutdown windows, production deadlines and work by OEMs or other contractors should be captured before the programme is built.

2. Survey and document the existing production line

Record the line before dismantling. Equipment positions, dimensions, access routes, lifting points, connections, cable routes, pipework and machine interfaces may all be needed during reinstallation.

Match-marking, photographs, drawings and equipment registers reduce ambiguity when components arrive at the destination site.

3. Prepare the destination before equipment leaves the original site

Check that the receiving area is ready for the line. Floor condition, foundations, access openings, lifting routes, power, compressed air, process services, cable containment and equipment clearances should be resolved before delivery.

Where line geometry is critical, datum points and survey control can be established in advance.

4. Build the move sequence around production and site constraints

The relocation programme should define what is dismantled first, how equipment is released for transport and the order in which it will be received and installed.

The sequence also needs to account for shared work areas, vehicle access, lifting equipment, temporary storage and interfaces with other trades. A line moved in the wrong order can create unnecessary handling or block access to later equipment.

5. Isolate, dismantle and label equipment systematically

Before dismantling, energy sources and connected services need to be isolated in line with the site procedure and project method.

Mechanical, electrical and control components should then be disconnected in a controlled sequence. Labelling and documentation are particularly important where similar cables, pipework, guards or subassemblies will need to return to specific positions.

6. Plan lifting, packing and transport for each asset

Machinery weights, centres of gravity, lifting points, dimensions and sensitivity determine the handling method. The move may require forklifts, mobile cranes, hydraulic gantries, VersaLifts or other specialist equipment.

Packing should protect machined surfaces, electrical components, sensors and loose assemblies for the transport conditions involved.

For individual machines or particularly heavy assets, the handling stage may also draw on dedicated machine relocation and rigging methods.

7. Control transport and delivery sequencing

Transport planning should match the installation sequence at the receiving site. Loads need to arrive when the destination team has the space, lifting equipment and labour to receive them.

International moves may also require export packing, customs documentation and coordination between teams in different countries.

8. Reinstall, level and align the production line

Reinstallation starts with positioning equipment against the agreed layout and reference points.

Machinery, conveyors and connected systems are then assembled, levelled and aligned to the tolerances required by the equipment manufacturer and process. Errors at this stage can affect interfaces between machines and create problems during commissioning.

Where tighter positional control is required, precision measurement and alignment can be used to verify machine position, level and geometry.

9. Reconnect mechanical, electrical and control interfaces

Once equipment is positioned, utilities, electrical supplies, control panels, sensors, safety circuits and other interfaces can be reinstated according to the project scope and OEM documentation.

Mechanical and electrical completion should follow an agreed sequence so testing is not delayed by unfinished upstream work.

10. Test the complete line before production restart

The relocated line should be inspected and tested before handover.

Checks may include mechanical condition, alignment, electrical verification, safety functions, dry runs and OEM commissioning activities. The exact test plan depends on the equipment and process, but the objective is the same: identify installation issues before the line returns to normal production.

Production line relocation in practice

The scale of a production line move becomes clearer in a cross-border project. Beck & Pollitzer relocated a cylinder block line and a cylinder head line from Poland to Brazil for an automotive manufacturer.

Both lines were dismantled in Poland and packed in custom-built boxes for sea transport, with Beck & Pollitzer’s operations team overseeing installation at the destination in Brazil. The Poland to Brazil line transfer involved 50,000 working hours and 337 truck dispatches. The dismantling and shipping deadlines were tied directly to the production schedule at the Brazilian plant.

This type of programme combines dismantling, logistics and machinery installation within one relocation sequence. Documentation, delivery order, reinstallation and restart readiness have to remain connected throughout the project.

A guide to safely moving industrial machinery

A complete guide for safe machinery and equipment move

Written by bp-editorial on 1 August 2023. Posted in Article. No Comments on A complete guide for safe machinery and equipment move

Moving heavy machinery, sometimes called machine shifting, requires a defined sequence covering assessment, dismantling, lifting, transport, reassembly and testing. The exact method depends on the machine, the route, the site and whether production continues around the work.

How do you move heavy machinery safely?

A safe machinery move follows a planned sequence: assess the equipment and route, define the lifting and transport method, dismantle and protect the machine, rig and move it, transport it where required, reassemble and align it, then complete inspection and testing before production restarts.

The International Labour Organization estimates that 395 million workers worldwide sustain a non-fatal work injury each year. A heavy machinery move combines lifting, stored energy, moving vehicles, suspended loads and changing work zones, so hazards and controls should be agreed before work begins and reviewed as site conditions change.

1. Complete a pre-move assessment

Record the machine dimensions, weight, centre of gravity, lifting points and any manufacturer instructions. Check the route from the existing position to the loading area and from delivery point to final position, including floor loading, door openings, turning space, overhead restrictions and access for lifting equipment.

2. Build the moving plan

Define responsibilities, sequence the move and identify the equipment, labour and permits required. The plan should include electrical, hydraulic and pneumatic isolation; dismantling; packing; lifting; transport; unloading; reassembly and testing.

Transport and lifting requirements vary by country, so the move must be checked against the rules that apply at the origin site, the destination site and along the transport route. Cross-border projects may also need customs clearance, escorts, permits or route approvals, depending on the machinery and journey.

3. Dismantle and protect the machinery

Follow the manufacturer’s instructions and record the machine condition before work starts. Match-mark components, photograph connections and isolate electrical, hydraulic and pneumatic systems. Sensitive assemblies may need separate crates, shock protection, moisture control or other packaging selected for the equipment and journey.

4. Plan and execute the rigging

Select lifting equipment and rigging hardware from the verified load data and site conditions. The method may involve cranes, forklifts, gantries, skates, jacks or combinations of these systems.

For a deeper explanation of load handling and positioning, see our guide to rigging services and riggers.

5. Transport the machinery

Use a transport provider and vehicle configuration suitable for the loaded weight and dimensions. Route surveys may be required for bridge capacity, road width, overhead restrictions, street furniture and delivery access. The transport plan should also account for the receiving site’s unloading sequence so lifting equipment and installation teams are ready when the load arrives.

6. Unload, position and reassemble

Unload onto a prepared route and move the machine into its final position using the approved lifting or movement method. Reassemble components from the match-marking records, reconnect services and complete mechanical checks before energisation.

Where positional tolerances are tight, precision measurement and alignment can support floor marking, levelling and verification.

Reinstallation at the new position follows the same stages as machinery installation: assembly, alignment, connection and testing.

7. Test and hand over

Inspect the machinery for transport or handling damage, verify guards and connections, and complete the required mechanical, electrical and functional checks. Any issue identified during inspection should be documented, assessed and resolved before the machine is returned to production.

A machinery-relocation example

For a relocation from Germany to Trutnov in the Czech Republic, Beck & Pollitzer unloaded and moved production equipment to a fourth-floor installation area. The seven-person team worked from risk assessments, method statements and lifting plans, using 5-tonne forklifts and two 55-tonne mobile cranes. The work took 528 project hours.

The same end-to-end scope can cover machine relocation from dismantling through reinstallation, with lifting, transport and installation planned as one work package.

Factory Relocation Planning - Beck & Pollitzer

Strategies for effective planning of a factory relocation project

Written by bp-editorial on 30 June 2023. Posted in Article. No Comments on Strategies for effective planning of a factory relocation project

Relocating a factory affects every part of the business: production, people, suppliers, IT systems and the buildings at both ends of the move. A manufacturing plant relocation project plan brings those workstreams into one programme, with a defined sequence, budget and owner for each stage. Starting the plan early gives the business more options for protecting output while the move takes place.

What should a factory relocation project plan include?

A facility relocation project plan should set out the objectives of the move, the project team and decision-makers, the readiness of the new site, an inventory of everything being moved, the main risks and contingencies, a communication plan, the sequence of the physical move, the IT and workforce transition, and a review once production has restarted.

How to plan a factory relocation: key steps

1. Define the objectives and scope

Start with the reason for the move, whether that is expansion, consolidation, lower operating costs or closer access to customers and suppliers. Agree how success will be measured, including the target date for full production at the new site. Decide early which equipment will move, which will be replaced and which will be sold, recycled or disposed of.

2. Build the project team

Bring together representatives from operations, engineering, facilities, IT, HR, procurement, finance and health and safety. Appoint one project manager with authority over the whole programme, and define where internal responsibilities end and contractor scopes begin. Structured project management keeps decisions, interfaces and change control in one place.

3. Select and prepare the new site

Assess potential sites against cost, power and utility capacity, floor loading, access for deliveries, the local labour market, proximity to suppliers and customers, and the permits required. Once a site is chosen, utilities, foundations, permits, IT networks and security systems should be in place before the first equipment arrives.

4. Build an inventory and assess the risks

Create a register of every machine, utility connection, spare part and item of tooling, together with its condition and any manufacturer requirements. Use it to build a risk register covering production disruption, equipment damage, supply chain interruptions and regulatory compliance, with a contingency for each high-risk item. Building up finished stock before the move is a common contingency for critical product lines.

5. Plan communication with stakeholders

Set out who needs to know what, and when. Employees, customers, suppliers, contractors and local authorities all need clear information about the timetable and its impact, followed by regular updates as the programme progresses.

6. Sequence the physical move

Decide which lines move first, how shutdown windows are scheduled and whether production can continue in parallel at the existing site. The detailed sequence for dismantling, transporting and reinstalling equipment is covered in our production line relocation steps. Specialist manufacturing plant relocation services can take responsibility for this stage, from disconnection at the existing site through to reinstallation at the new one.

7. Transfer IT systems and the workforce

Plan the migration of servers, networks and production software, and test them at the new site before going live. Confirm workforce requirements at the new location, including transfers, recruitment and retraining, and train staff on the new layout, processes and safety arrangements.

8. Review the move

Once production has restarted, compare the outcome against the original objectives. Gather feedback from employees, customers and suppliers, close out any outstanding issues and record lessons for future projects.

Plant relocation checklist

Objectives, budget and success measures agreed
Project manager appointed and team responsibilities defined
New site selected, with utilities, foundations and permits confirmed
Equipment register completed, including move, replace and dispose decisions
Risk register and contingencies approved
Communication plan issued to employees, customers and suppliers
Move sequence and shutdown windows scheduled
IT migration tested at the new site
Workforce transfers, recruitment and training planned
Post-move review scheduled

Planning in practice: a cross-border relocation

A cross-border move adds a second site team, international transport and two sets of local conditions to the plan. When an automotive client relocated machinery from its site in Hungary to a facility in Slovakia, Beck & Pollitzer teams in both countries worked together on the move. In Hungary, the machinery was dismantled, palletised and packed, then loaded using forklift trucks, cherry pickers and mobile and city cranes. In Slovakia, heavy lifting equipment unloaded it at the new facility.

Coordination between the two teams helped the project manage COVID restrictions and a strict timetable. The Hungary to Slovakia relocation was completed in five weeks, within schedule.

A comprehensive guide to warehouse automation

Written by bp-editorial on 29 June 2022. Posted in Article.

Warehouse automation is changing how manufacturers, retailers and logistics operators manage growing order volumes, labour pressures and increasingly complex inventory. Systems now range from relatively simple picking and warehouse management technologies to highly automated storage, retrieval and robotic handling.

This guide covers how warehouse automation works, the main technologies in use, the benefits it can deliver, where the sector is heading and what installing an automated warehouse actually involves.

The market reflects that growth: Grand View Research valued the global warehouse automation market at $19.2 billion in 2023 and projected it to reach $59.5 billion by 2030.

What is warehouse automation?

Warehouse automation is the use of robots, software and automated systems to carry out repetitive, high-volume warehouse tasks, from picking and packing to inventory tracking and internal transport. The level of automation varies widely, from warehouse management software supporting individual processes to facilities where automated equipment handles much of the physical movement and storage of goods.

How warehouse automation works

Warehouse automation links software, sensors and physical equipment so goods can be stored, located, moved and picked with less manual handling. E-commerce and online grocery businesses are among the heaviest users because order volumes, SKU counts and delivery expectations put sustained pressure on manual processes.

How far automation goes depends on the operation. Some sites use warehouse management software and guided picking to support people on the floor. Others combine conveyors, automated storage, robots and control systems so a much larger share of the material flow runs automatically.

AI optimisation

Artificial intelligence already plays a role in warehouse automation, both in day-to-day operations and longer-term planning. AI can help improve inventory accuracy, identify demand patterns and support product placement decisions. Factors may include:

Demand for the product

Which other products are commonly ordered alongside it

Shelf life, particularly for perishable goods

Route optimisation, including moving stock during quieter periods

A fully automated warehouse with no human involvement remains uncommon. Robots increasingly work alongside people in shared operations, which is why HSE announced in June 2026 that it was partnering with Automate UK and the Manufacturing Technology Centre to develop practical guidance on collaborative robots working safely alongside people.

Types of warehouse automation

Warehouse automation can combine several technologies. The most common approaches include:

Technology	How it works	Where it fits
Goods-to-person (GTP)	Automated equipment retrieves stock and brings it to a picker.	Operations seeking to reduce picker travel and speed up fulfilment.
Automated storage and retrieval systems (AS/RS)	Automatically stores and retrieves goods from defined storage locations.	High-volume storage and retrieval where repeatability and space use are important.
Pick-to-light	LED displays direct operatives to the correct location and quantity.	Manual picking environments where faster search and fewer picking errors are priorities.
Carousels	Rotating shelving brings stock to a fixed picking station.	Space-constrained operations that still rely on manual picking.
Autonomous mobile robots (AMRs)	Mobile robots navigate the warehouse and move goods between locations.	High-volume operations combining manual and automated workflows.
Cube-based systems	Robots operate across a dense storage grid to access bins or totes.	High-density storage where floor space needs to be used efficiently.

Examples of cube-based systems include AutoStore, the Ocado Smart Platform and Cimcorp solutions. AutoStore uses robots within a cube grid layout and states that the system can provide up to four times the storage capacity of conventional shelving.

Benefits of warehouse automation

Cost and throughput. Automated systems can reduce travel and search time, while conveyors and robots can move goods through fulfilment processes more consistently.

Temperature control. Reducing the need for people to enter chilled areas can help limit door openings and temperature fluctuation in temperature-controlled operations.

Space utilisation. Automated systems can work with tighter clearances than layouts designed around people and pallet trucks, leaving more floor area available for storage.

Safety and security. Reducing interaction between people and heavy moving equipment can remove some manual-handling and traffic risks, while automated inventory tracking can improve stock visibility.

Warehouse automation trends

Two common approaches are Micro Fulfilment Centres (MFCs) and Customer Fulfilment Centres (CFCs). MFCs place compact automated systems inside or close to existing retail locations, including supermarkets, so online orders can be fulfilled nearer to customers. CFCs are larger, purpose-built hubs that bring storage, picking and shipping together in one facility, often as part of a hub-and-spoke network.

Automated warehouse installation

Whether the system is an MFC, a CFC, an AS/RS or a cube-based layout, installation depends on accurate positioning, sequenced delivery and commissioning support. Mechanical equipment, electrical controls, conveyors, storage structures and automation interfaces all need to come together against the same programme.

Beck & Pollitzer supports these projects through machinery installation, Project Management and machinery moving and relocation where existing equipment needs to be repositioned or transferred. This brings the mechanical and electrical work, site logistics and installation sequence together under one delivery structure.

A related automated warehouse installation for a dairy production plant shows the level of precision this can require. The warehouse was designed to operate at -27°C, while clearance between the top of the stacker crane and the ceiling was less than 50 mm. A team of installation specialists, engineers and a safety engineer completed the installation under project management supervision.

5S warehousing: Optimising efficiency and organisation

Written by bp-editorial on 14 December 2021. Posted in Article. No Comments on 5S warehousing: Optimising efficiency and organisation

Warehouses depend on clear, consistent working conditions: materials in known locations, open routes and problems that are easy to spot. The 5S method provides a structured way to create those conditions, and it is a common foundation for a lean warehouse.

In a warehouse, 5S can be applied to storage areas, workstations, pedestrian routes, tools, materials and visual controls. The aim is to make items easier to locate, abnormal conditions easier to identify and agreed standards easier to maintain as operations change.

What is 5S in warehousing?

5S is a workplace organisation method that originated in Japanese manufacturing. It is based on five Japanese terms:

Seiri (Sort): remove items that are not required.
Seiton (Set in order): organise what remains so that it can be easily located and returned.
Seiso (Shine): clean and inspect the working area.
Seiketsu (Standardise): establish consistent methods for maintaining the first three stages.
Shitsuke (Sustain): build the routines and behaviours needed to maintain those standards over time.

Applied properly, these stages create a more structured warehouse environment and make day-to-day problems easier to see and address.

The five stages of 5S in a warehouse

1. Sort

The first stage is to identify what is actually needed in each area.

Warehouses can gradually accumulate obsolete stock, damaged materials, unused packaging, redundant equipment and tools that no longer belong in the working area. Sorting separates essential items from those that can be removed, relocated or disposed of.

This can free working space and reduce the number of unnecessary items operators need to work around.

2. Set in order

Once unnecessary items have been removed, the remaining equipment and materials need clearly defined locations. This can include:

marked pallet and storage positions
designated locations for tools and handling equipment
clearly identified pedestrian and vehicle routes
labelled racking and storage zones
defined waste and recycling areas
visual identification for frequently used items

The location should reflect how the warehouse actually operates. Items used regularly should normally be positioned where they can be accessed without unnecessary movement, while routes and storage areas should remain clearly defined.

Clear storage zones, pedestrian routes and emergency access also support wider health and safety requirements within warehouse environments.

3. Shine

Shine combines housekeeping with inspection.

Cleaning a workstation, storage area or item of equipment can reveal damage, leaks, loose components, blocked access or other conditions that may otherwise go unnoticed.

Responsibilities should therefore be clear. Operators need to know which areas they are expected to inspect, what standard is required and how defects or abnormal conditions should be reported.

4. Standardise

Standardisation turns the first three stages into a consistent way of working.

Visual standards can include floor markings, labels, signage, storage photographs, inspection sheets and 5S boards showing how an area should be arranged.

The objective is to make the expected condition clear enough that employees can quickly recognise when something is out of place.

Where several warehouse areas or sites perform similar activities, common standards can also help maintain consistency between locations.

5. Sustain

The final stage is maintaining the system.

Without regular checks, organised storage areas can gradually return to previous working practices. Scheduled inspections, 5S audits and clear ownership help identify where standards are slipping.

Sustaining 5S therefore depends on routine. Teams should understand why each standard exists and be able to update it when layouts, equipment or operational requirements change.

How does 5S work in practice?

Many 5S controls are simple and visual.

For example, warehouse layouts can use floor markings to separate storage areas from pedestrian and vehicle routes. Fire equipment, emergency exits and access points should remain clearly identified and unobstructed. Tools and consumables can be stored in defined locations so missing items are immediately noticeable.

Visual boards can also be used to record inspection findings, responsibilities and actions. In larger or more automated facilities, the same principles may be supported through digital inspection and visual-management systems.

The exact method will vary between operations, but the principle remains the same: each area should have a defined purpose and an agreed standard that can be checked.

5S during warehouse relocation, expansion and automation

5S can be particularly useful when a warehouse is being changed as well as maintained.

During a warehouse relocation, sorting can help identify obsolete equipment or materials before they are transferred. Defined storage locations and labelling can then support the setup of the receiving facility.

The same principles can support warehouse automation projects. Automated systems still operate alongside workstations, maintenance areas, pedestrian routes, spare parts and manual handling zones, all of which benefit from clear organisation and visual standards.

For wider logistics and warehousing operations, 5S can form part of the way layouts, equipment and working areas are organised as facilities expand or change.

How Beck & Pollitzer uses 5S

Beck & Pollitzer applies the 5S method in its own warehouses as part of its wider approach to workplace organisation and health and safety.

The method provides a practical framework for maintaining defined storage areas, clear working routes, organised tools and consistent housekeeping standards. It can also be adapted as warehouse layouts and project requirements change.

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