Industrial installs fail when installation sequences slip up: a late survey, a missing permit, a lift plan written after a crane has already arrived on site. A clear timeline keeps the moving parts in step – commercials, engineering, safety, and the people doing the hard work on the factory or workshop floor. Below is a practical run-through of how the process tends to unfold, with the usual overlaps and a few useful tips along the way.
1. Early assessments: goals, constraints, potential issues
Start with the boring (but vital) questions. What is the machine meant to deliver? Make sure that you consider details like throughput, accuracy, and cycle time. Where will it sit, and can the slab beneath it actually cope with point loads and vibration?
Walk the route from the main entrance to the machine’s final placement with a tape measure and a notepad: jot down door heights, pinch points, stairs, mezzanines, and weak floors. Pull the OEM data sheets; check the weight, centre of gravity, lifting points, services, heat rejection, noise, and anchorage.
At this stage, your main goal is killing surprises, not polishing final plans. Taking inspiration from standard industry step-downs – planning, site prep, offload, set, connect, test – sets a sensible foundation for the timeline.
2. Pre-construction setup: roles, RAMS, programme
In the UK, installation work sits under CDM 2015. That means that you need to name duty-holders (e.g. client, designers, principal designer/contractor, where relevant) and write a construction phase plan before tools can hit the floor.
Treat this framework as a kind of control centre: who’s competent to do what, how risks will be managed, how interfaces are handled, how changes are logged. If more than one contractor is involved, coordination is not “nice to have” – it’s a formal duty that needs taking care of.
Build the RAMS pack with real pictures from the site. Fold in any relevant factors including lockout/tagout, hot-work permits, isolations, COSHH, and near-miss capture. Put a short, readable version on the wall; keep the full pack in a folder.
3. Engineering & methodology: drawings, lift studies, access
At this stage, produce and consult installation drawings that show what’s actually going on: things like bolt patterns, grout pockets, datum points, shim stacks, levelling tolerances, service stubs with heights and directions of fall.
For heavy moves, write the lift plan early on as well. Under LOLER, every lifting operation must be planned and supervised by competent persons; the plan should clearly list equipment, rigging, ground bearing pressures, exclusion zones, comms, weather limits, and contingencies. Classify lifts (simple vs. complex) and plan accordingly.
4. Off-site preparation: FAT, crating, transport
If the OEM offers a Factory Acceptance Test, take it – you’ll likely save yourself from a lot of bother later on. Meanwhile, agree on packing lists, crate weights, and lifting diagrams you can trust in the best and worst of conditions, including at 6 a.m. on a wet Tuesday morning.
Logistics matters: carry out route surveys for abnormal loads, timed deliveries, and driver instructions that include gate access and reverse-in routes. Label crates with instructions given in clear, human language (“Line 2 – Main bed – 2.8 t – offload first”), not just with part numbers.
5. Site preparation: civils, services, permits
Getting the floor properly prepared is a critical early step for preparation. Break out the old concrete and pour new where needed; install anchors or sleeves, grout pads, and cable routes; test services to capped points with pressure and leak tests.
Put in temporary power and lighting if there’s no permanent lighting yet, so the team isn’t working in a dark, damp cave. If production is live nearby, agree on isolations and shift patterns in writing. This is also when you will need to line up permits, inductions, and tool inspections so the first delivery doesn’t need to be turned away at the gate.
6. Delivery & offload: controlled moves
Stagger arrivals so the yard doesn’t get jammed. Brief the whole crew (crane, forklift, riggers, banksman) with the lift plan in hand, not forcing them to work from memory. Use kit suited to the job – spreader beams, Versa-lifts, skates, toe-jacks, SPMTs for the big stuff – and respect the envelope: ground bearing limits, headroom, gradients. Keep exclusion zones real, not tape-on-floor decorations.
7. Positioning & alignment: get the datum right
Get the machinery roughly in place, then fine-tune. Land the base on shims or jacking screws, and square to datum lines you’ve actually marked. Make sure that you think about level and twist before you think about bolt stretch.
Laser alignment saves hours later; lock readings into an ITP so you’re not arguing about whether or not it’s close enough at handover. On multi-module lines, shoot a spine line and work outwards.
8. Mechanical completion: torque, fixings, guarding
Build from the base up: structural members, precision components, belts/chains, piping, pneumatics, hydraulics. Torque to spec, and sign off on the relevant forms when it’s done. Fit guards and interlocks as you go, not at the end. Remember PUWER: equipment provided for work must be suitable, maintained, and used by trained people – with guarding and controls that make sense in use.
9. Electrical & controls: power-on
Run cables cleanly; dress panels so that future techs don’t hate what you’ve done and refuse to do repair work. Prove continuity, insulation resistance, and earths; verify emergency stops and safety circuits before first energisation. Only then, power up and test functionality. Keep a punch list on the board, and close it daily.
10. Commissioning & prove-out: from dry run to product
Make sure that you layer this final stage appropriately, tweaking the process to match the machines. Cold checks: I/O, safety chains, direction of rotation, sensors, valves. Dry run: slow speed, then rated speed without parts to be machined; monitor vibration, temperatures, and noise. Wet run: run the real process, measure cycle time and quality, and set final settings with machine operators.
In reality, these processes will likely move around and overlap quite a bit. A crate of critical components goes missing; the existing production line needs to stay live for another week. That’s normal. The important thing is to protect the proper sequence of tasks even when there are some calendar wobbles. Keep the order intact, and the project will forgive a lot of smaller issues as you progress.