Global Beverage Client – Full Production Line Relocation

Project Context

This project involved the end-to-end relocation of a complete beverage production line from an existing facility to a new site, with the line required to return to stable, repeatable output as quickly as possible while meeting food-grade compliance, local statutory requirements, and internal corporate standards.

The relocated assets included process equipment, packaging machinery, line controls, utilities tie-ins, and supporting infrastructure that needed to be integrated into a different building layout, different services distribution, and a new operational cadence for the receiving plant.

Scope of Work

Front-end planning and survey: on-site asset verification, dimensional checks, services mapping, and condition reporting to confirm what would move, what would be refurbished, and what would be replaced.
Line documentation: creation and validation of equipment lists, cable schedules, I/O lists, spares lists, and photo records to support a controlled strip-down and rebuild.
Decommission and removal: safe isolation, mechanical and electrical disconnection, controlled dismantling, and preparation for transport with appropriate protection for hygienic surfaces and sensitive components.
Transport and logistics: packing strategy, load plans, lifting studies, route constraints, and delivery sequencing aligned to the receiving site’s craneage and access windows.
Reinstallation and integration: placement, alignment, anchoring, services reconnection, guarding, and line balancing across upstream/downstream interfaces.
Commissioning support: dry commissioning, wet commissioning, recipe validation, performance checks, and operator handover support.

Key Challenges Addressed

Because the project spanned two operational environments, the relocation required coordination across multiple disciplines and stakeholders, including production, quality, engineering, EHS, and external contractors. Several areas required specific attention:

Hygienic integrity: protecting product-contact zones during dismantle, transport, and reassembly, and ensuring post-installation cleanability and drainage remained fit for purpose.
Site interface differences: adapting to variations in floor levels, slab capacity, access routes, and utilities distribution while maintaining original line intent.
Controls and electrical migration: ensuring panels, field devices, and network architecture were re-established with minimal risk of latent faults introduced during disconnection and re-termination.
Schedule pressure: aligning removal and install windows to business production commitments, including the sequencing of long-lead spares and critical path activities.

Relocation Methodology

1) Pre-Relocation Survey and Readiness

A structured survey phase established the relocation baseline. Equipment tags were verified against existing records, and any discrepancies were captured early to avoid surprises during strip-down. The survey also identified “single points of failure” where a missing part or damaged assembly could delay restart, allowing spares and contingency plans to be put in place before any physical work began.

At this stage, the receiving site layout was checked for practical installation considerations such as maintenance access, changeover clearances, and safe walkways. Where modifications were required, these were defined as enabling works so that the line installation could proceed without unplanned rework.

2) Isolation, Decommissioning, and Controlled Dismantle

Decommissioning followed a permit-controlled approach with documented isolations and verification. The dismantle sequence was designed to preserve alignment references and minimize the need for complex re-setting during installation. Critical settings and positions were recorded so that reassembly could start from known conditions rather than from trial-and-error.

To support traceability, components were labeled consistently, and fasteners, brackets, and change parts were packed into clearly identified kits. Where hygienic seals and gaskets were removed, replacements were specified in advance to avoid reusing compromised materials.

3) Packing, Protection, and Transport Sequencing

Transport preparation focused on preventing both cosmetic and functional damage. Stainless surfaces, sensors, and exposed shafts received additional protection, and shock-sensitive items were packed with appropriate supports. Deliveries were sequenced to match the installation plan so that the receiving site could place equipment directly to location rather than storing it and increasing handling risk.

For larger assemblies, lifting points and rigging plans were confirmed before arrival to reduce time spent resolving craneage constraints on the day. This also supported safer operations by ensuring the correct equipment and competent resources were in place for each lift.

4) Installation, Alignment, and Services Integration

Reinstallation prioritized the physical backbone of the line: base frames, conveyors, and major process skids were set, leveled, and aligned before utilities and controls were finalized. This ensured that subsequent work—such as guarding, pipework, and cable routing—could follow stable reference points.

Services integration covered compressed air, water, steam (where applicable), CIP connections, drains, and electrical power. Each reconnection was checked against required flow/pressure/quality specifications, with attention to filtration, dew point, and supply stability where these could influence product quality or packaging performance.

Controls, Automation, and Data Considerations

Relocating a modern beverage line is not only a mechanical exercise. Control system integrity often determines how quickly stable production can be achieved. Network topology, switch configuration, device addressing, and safety circuits all require careful reinstatement, particularly when the receiving site has different IT/OT standards or requires segregation and cybersecurity controls.

Panel and device verification: point-to-point checks to confirm correct terminations and to identify damaged cables or connectors introduced during handling.
Safety validation: confirming E-stops, interlocks, guarding circuits, and safety relays function as intended after reassembly and before any powered movement.
Recipe and parameter management: ensuring setpoints, calibration values, and product-specific parameters are restored and documented to avoid drift from established quality profiles.
Instrumentation calibration: flow, temperature, pressure, and level instrumentation verified to support repeatability, especially during wet commissioning.

Quality, Compliance, and Hygienic Re-Qualification

In parallel with installation, the receiving site’s quality requirements were addressed through a structured re-qualification approach. This included verification of materials, inspection of product-contact surfaces, and confirmation that cleaning regimes could be executed effectively within the new layout.

Where the move introduced changes—such as altered pipe runs, revised drain locations, or modified access for cleaning—these were assessed for impact on hygiene and operator practices. The objective was to ensure the line could be cleaned, inspected, and maintained to the same or improved standard compared to the original installation.

Commissioning Approach

Commissioning was staged to reduce risk and to build confidence progressively:

Dry commissioning: mechanical run checks, conveyor tracking, sensor proving, actuator function tests, and fault recovery verification.
Wet commissioning: utility validation under load, leak checks, CIP verification where applicable, and controlled introduction of process fluids.
Packaging performance checks: label application accuracy, fill/level control validation, capper performance, coding/serialization checks (if applicable), and reject system verification.
Stability runs: extended operation to confirm temperatures, pressures, speeds, and reject rates remain stable over time and across shift patterns.

Operational Readiness and Handover

Operator readiness was supported through line walkdowns, re-familiarization with safety features, and practical training aligned to the new physical layout. Maintenance teams were provided with updated references for access points, lubrication locations, and recommended inspection intervals, particularly where installation changes influenced serviceability.

As the line moved from commissioning into routine production, emphasis was placed on capturing early-life issues in a controlled way—prioritizing repeat defects, documenting corrective actions, and ensuring spares holdings matched the realities of the re-established configuration.

What Typically Determines the Fastest Return to Output

In projects of this nature, the speed of recovery is often driven by the details that can be overlooked during the move. Items such as missing change parts, unverified instrument calibration, incomplete guarding reinstatement, or unresolved utility quality issues can extend downtime disproportionately. Planning for these points early, and verifying them systematically during the rebuild, supports a smoother transition from “it runs” to “it runs reliably.”

Next Areas to Validate as the Line Settles In

Once the line is operating in the new environment, there are several practical checks that continue to add value as production demand ramps up:

Micro-stoppage and reject trend monitoring: identifying new patterns driven by layout differences, ambient conditions, or services stability.
Utility consumption baselining: comparing compressed air, water, and energy usage to expected benchmarks to spot leaks, regulation issues, or inefficient settings.
Changeover time confirmation: ensuring the new access and positioning supports fast, safe changeovers and does not introduce new ergonomic strain.
Spare parts optimization: refining critical spares based on what the relocation revealed about wear items and vulnerability during handling and recommissioning.