Server resale value has changed more in the past year than in the five before it. Equipment that would have gone for scrap in 2024 is now worth recovering, and in some cases worth more than the cost of taking it out of the rack.

Why prices have moved

The AI build-out is absorbing the world’s memory supply. Manufacturers have shifted production towards high-bandwidth memory for AI accelerators, leaving less capacity for the standard server memory everyone else uses. Counterpoint Research forecast that server memory prices could double by the end of 2026, and TrendForce expected server DRAM prices to rise by around 90% in the first quarter of 2026 alone.

When new memory gets that expensive, buyers turn to the used market, and the price of recovered memory rises with it.

What holds value

Not everything coming out of a data centre is worth the same. As a rough guide:

• Memory: the biggest change. DDR5 especially, but DDR4 has risen too. A server full of memory can be worth more for its RAM than as a whole unit.
• Recent servers: equipment from the last three or four generations (for example Dell PowerEdge 15th and 16th generation, HPE ProLiant Gen10 Plus and Gen11) sells well, particularly with high-core-count CPUs.
• Enterprise SSDs and NVMe drives: valuable, but only if they have been securely erased rather than shredded.
• GPUs and accelerators: strong demand, depending on model and condition.
• Networking: switches and routers hold some value, depending on model and support status.

Equipment more than eight to ten years old is usually worth little beyond its component and scrap value.

What reduces the price

A few things consistently pull values down:

• Trade, not retail: trade buyers typically pay around a third of used retail prices, because they carry the cost of testing, refurbishing and reselling.
• Volume of identical units: selling hundreds of the same model at once depresses the price.
• Shredded drives: a destroyed drive has no resale value. If your data policy allows certified erasure, drives can be sold with the hardware.
• Licences: software and support licences don’t usually transfer with the equipment.
• Timing: prices driven by a supply shortage won’t stay high forever. Equipment sold sooner is likely to fetch more.

Recyclers price by weight. Engineers price by spec.

A standard recycler will often quote by the kilo or offer a flat collection. That’s fine for genuinely end-of-life equipment. For anything still in its useful life, it throws value away.

An engineer-led decommission works differently. Each device is audited by serial, model and configuration before anything is unplugged. You get a valuation against a real inventory, not a pallet weight.

Why the value matters even if you’re not selling

Hardware value isn’t only about resale. It also decides:

• Insurance: goods in transit cover normally pays out on declared value. Undervalue a shipment and that’s all you can claim.
• Customs: for cross-border moves, the declared value must reflect what the equipment is worth today. Under-declaring is a liability for the exporter, not a saving, and shipments can be held while customs check it.
• Accounts: finance teams need a defensible figure when equipment is retired.

Moving or retiring kit across a border? Read why shredded drives can’t travel before you plan the route.

Decommissioning that pays for itself

On a recent decommissioning quote covering around 500 devices across two European data centres, our estimate of the hardware’s trade value ran to several hundred thousand pounds, many times the cost of the decommissioning work.

That changes how a decommission should be planned. Instead of treating the hardware as disposal, it becomes an asset to be recovered:

• Every asset audited: serial, model, CPU, memory, condition and grade
• Drives securely erased with a certificate per drive, or shredded where policy requires, with serials recorded
• Hardware sold through established trade buyers, with the proceeds offset against the cost of the project

See the certificates and reports we provide for every job.

Getting a valuation

To get a realistic estimate, have the following ready:

• An asset list with make, model and quantity
• CPU, memory and drive configuration for each model, or a sample of each
• Whether drives must be destroyed or can be erased
• Where the equipment is, and when it needs to be out

Read more about our data centre decommissioning service, how we approach AI hardware decommissioning, or get in touch for a valuation.

Cross-border data centre decommissioning raises a question most project plans miss until late: once a drive has been shredded, where can it go? The answer is usually nowhere, at least not across a border without paperwork, consent and time that most projects do not have.

A shredded drive is waste

A working server is a product. It can be audited, packed and shipped like any other equipment. A shredded hard drive is different. Once it has been destroyed, it has no further use, and it becomes waste electrical and electronic equipment (WEEE).

That matters because waste does not move across borders the way products do.

The rules changed in 2025

Since 1 January 2025, amendments to the Basel Convention have brought electronic waste, including shredded and processed fractions, under the prior informed consent procedure. In practice, before a shipment moves, the exporter must notify the authorities in the country of dispatch, any transit countries and the destination, and wait for written consent from each.

• Within the EU: most e-waste shipments between member states now need prior consent. Certain non-hazardous e-waste can still move under a lighter procedure, but only until the end of 2026.
• From the UK: all WEEE exported for recovery to the EU or OECD countries must be notified.
• Since May 2026, the new EU Waste Shipment Regulation has moved these procedures onto a central electronic system.

A notified shipment also needs a contract with a licensed receiving facility and a financial guarantee. None of that fits a decommissioning programme with a fixed exit date.

What this means for a decommissioning project

If you are clearing racks in Amsterdam, Frankfurt or Dublin, and the plan is to shred the drives on site and bring the shreddings back to the UK, or across to another EU country, for recycling, that plan has a problem.

The practical answer is to destroy and recycle in-country:

• Drives are shredded on site by a mobile shredding partner, to H-5 for HDDs and E-5 for SSDs under DIN 66399 / ISO/IEC 21964
• Every drive serial is recorded before destruction
• The shreddings go to a licensed recycler in the same country
• You receive a certificate of destruction listing every serial

The hardware can still travel. Only the waste stays put.

Erasure keeps drives out of the waste stream

There is an alternative. A drive that has been securely erased, tested and documented as working is a used product, not waste. It can move with the rest of the hardware and be resold, which also recovers value.

Which route is right depends on your data security policy. Some organisations require physical destruction on site; others accept certified erasure. Read more on hard drive shredding vs data erasure.

Plan it at the start

The point to decide is early, before the contract with the shredding partner is signed and before the exit date is fixed. Questions to settle:

• Will drives be shredded or erased?
• If shredded, is there a licensed partner who can shred and recycle in each country?
• Does your certificate need to list individual serials?
• Is any hardware leaving the country, and is it all classed as working equipment?

How DataMove handles it

We run data centre decommissioning across the UK and Europe, with destruction and recycling partners in Germany and the Netherlands, so drives are destroyed and recycled where they sit, and the hardware is audited, moved and resold. Read more about our data centre decommissioning service, or get in touch for a quote.

This article is general guidance, not legal advice. Waste classification depends on the material, and should be confirmed with your waste partner or the competent authority.

Multi-site data centre relocation is a different job from a single move. The lifting and packing are the same, but the risk moves from the rack to the programme. Every site has its own access rules, loading bay slots, escort requirements and change windows, and one late slot at one site can knock out the plan at the other three.

This guide covers how to plan a move across several data centres (or data centers, if your estate spans the Atlantic) so that it runs as one project, not four.

Why multi-site moves go wrong

Most multi-site moves fail on coordination, not handling. Typical problems:

• Each site is booked separately, so nobody owns the overall timeline
• Different contractors at each end, with different packing and labelling standards
• Transport priced site by site, so vehicles are used inefficiently
• Access paperwork submitted late for one site, holding up the whole move
• Equipment arriving at a destination before the rack is ready to receive it

None of these is a technical problem. They are all planning problems, and they get worse with every site you add.

One plan, one owner

The single most important decision is having one team accountable from first collection to last power-up. That means one rack plan per site, one labelling scheme across the whole estate, and one schedule that shows every collection, transit and delivery in order.

When one team runs every site, a problem at one location is solved inside the programme rather than turning into a dispute between contractors.

Parallel or staggered?

There are two ways to sequence a multi-site move.

Parallel: all sites move at the same time. Downtime is shortest and the project finishes fastest, but you need more crews and vehicles at once, so it costs more.

Staggered: sites move one after another. The same crew can cover several sites and transport can be combined where routes allow, so it costs less, but the programme runs longer and you need to manage a period where your estate is split.

The right choice depends on how long each service can be offline and how much the sites depend on each other. We often price both, so the client can see the trade-off in pounds rather than guessing.

Transport between sites

For high-value equipment, dedicated vehicles going direct from dock to dock are the safest option. There is no groupage, no hub and no transfer between vehicles. Where several destinations lie on one route, a single vehicle can make a multi-drop run, which cuts cost without adding handling.

Cross-border moves add a layer. Moves within the EU need no customs formalities, but UK to EU moves do, and the rules on which operators can carry goods between EU countries matter when you are choosing a carrier. Build these into the plan early, not the week before.

The same standard at every site

Equipment should be packed, labelled and documented the same way wherever it starts. In practice that means:

• Every cable and device labelled before de-cabling
• Equipment packed into secure, anti-static protection or sprung flight cases
• A serial-level asset list that travels with the kit and is checked off at each end
• Photos of each rack before and after
• A signed handover at every destination

If one site is handled to a lower standard, that is the site where something goes missing.

Decommissioning at the same time

Most multi-site moves leave equipment behind: older servers, storage that has been replaced, network gear that will not be needed at the new site. It is far cheaper to decommission it in the same programme than to come back later.

Data-bearing drives can be shredded on site or securely erased, and the remaining hardware audited and resold. Shredded drives count as waste and cannot easily cross borders, so they should be destroyed and recycled in the country where they sit. Read more about our data centre decommissioning service.

A short multi-site checklist

• One accountable project owner across all sites
• Access, escort and loading bay bookings confirmed at every site
• Rack elevations for every origin and destination
• Agreed sequence: parallel or staggered
• Transport route and vehicle plan, including any border crossings
• Insurance cover set per consignment, not just per project
• A decommissioning plan for equipment that is not moving

How DataMove handles multi-site moves

We run multi-site and cross-border relocations as a single programme, using our own engineers at every origin and destination, dedicated vehicles and one schedule from start to finish. We have moved equipment across 58+ countries, so a move involving several sites and several borders is routine for us, not an exception.

If you are planning a move that touches more than one site, get in touch for a quote.

Hard Drive shredding vs data erasure: every data centre decommissioning project has this question to answer. Both destroy the data. They lead to very different outcomes for cost, compliance and how much value you recover from the hardware, and the right answer is often a mix.

What shredding actually means

Physical shredding reduces a drive to small fragments, so the data can’t be recovered. The recognised standard is DIN 66399 (also published as ISO/IEC 21964), which sets security levels by particle size. For confidential data, hard drives are typically shredded to H-5 and solid-state drives to E-5.

The difference matters. An SSD stores data on small flash chips, so a shred that’s fine for a hard drive can leave chips intact. SSDs need a much finer cut, which is why they’re classified separately and usually cost more per unit to destroy.

Done properly, shredding happens on site, in a mobile shredding vehicle at the data centre loading bay. Every drive is scanned by serial number before it goes in, and the certificate of destruction lists each one. Drives never leave the building intact.

What data erasure actually means

Certified data erasure overwrites or cryptographically erases the drive to a recognised standard, most commonly NIST SP 800-88, and verifies the result. Each drive gets its own certificate, tied to its serial number.

The drive survives, and so does its value. An erased enterprise SSD or a modern high-capacity hard drive can be resold, and with server component prices sharply up over the past year, that value is worth having.

Erasure only works on drives that function. Any drive that fails erasure must be shredded. A good process plans for that from the start rather than treating it as an exception.

Why degaussing isn’t the answer for SSDs

Degaussing uses a powerful magnetic field to scramble the data on a hard drive. It has no effect on an SSD, because flash memory doesn’t store data magnetically. It’s still sometimes offered as a catch-all, so check what you’re being sold.

Even on hard drives, degaussing has a drawback: you can’t easily verify the result drive by drive. Shredding and certified erasure both give you a per-serial record.

How to choose

Shred when:

• your security policy or a regulator requires physical destruction
• drives have failed or can’t be erased
• the data is highly sensitive and the drives have little resale value
• the client contract specifies destruction

Erase when:

• drives are working and modern enough to resell
• recovering value matters, for example to offset the cost of the project
• sustainability and reuse are part of your IT strategy

On larger estates the answer is usually both: erase what works and has value, and shred the rest, with one audit trail covering every drive.

The cross-border catch

On international decommissioning projects, there’s a detail most providers don’t mention. Once a drive is shredded, the fragments are waste, and moving waste across borders is heavily regulated.

Shredded material from a site in the Netherlands, for example, can’t simply be driven to the UK or Germany for recycling.

The practical answer is to destroy and recycle in the same country, using a local partner for the waste stream. That’s how we run multi-country projects, and it’s worth checking before you sign with anyone who plans to “take it all back to base”.

Getting it right

The choice between shredding and erasure shapes the whole decommissioning project: how long you’re on site, what the client receives back, and whether the hardware pays for some of the work. Settle it before the first rack is touched, write it into the scope, and make sure every drive ends up on a certificate.

We handle both, on site and across borders, as part of our data centre decommissioning service. For more detail on the wiping side, see what data erasure actually involves.

Mac data erasure looks simple. Open System Settings, choose Erase All Content and Settings, wait a few minutes, and the Mac comes back to the setup screen. For a home user, that is enough. For an organisation retiring a fleet of MacBooks, it leaves one question unanswered: how do you prove it happened?

That question is where most Mac disposals fall down. Not because the data is still there, but because nobody can show an auditor, an insurer or a regulator that it isn’t.

How Mac data erasure works on Apple silicon

On Apple silicon Macs, and Intel Macs with the T2 chip, the internal SSD is encrypted all the time, with keys held in the Secure Enclave. Erase All Content and Settings destroys those keys. Without them, the data on the SSD is unreadable.

That is a cryptographic erase, and it meets the NIST SP 800-88 definition of Purge. Technically, the erasure is sound.

The problem: a factory reset leaves no record

What a factory reset doesn’t give you is evidence. There is no certificate, no serial number logged against a date and time, no record of who did it or what method was used. Multiply that by a few hundred MacBooks and you have a disposal you can describe but not prove.

That matters when:

• an auditor asks for evidence that each device was sanitised before it left your control
• a device turns up later and you need to show what happened to it
• your data protection policy requires a certificate per device, not a statement that “they were all wiped”

There is also a practical catch. If Find My Mac or Activation Lock is still on, the Mac is locked to its previous owner. It can’t be reused or resold, and its value drops to parts.

Certified Mac data erasure: what good looks like

A defensible Mac disposal gives you a record for every device, not just a clean screen. We use Ziperase, which runs the same cryptographic erase on Apple silicon and T2 Macs but wraps it in an audit trail:

• a signed certificate for every Mac, as PDF and machine-readable JSON, matched to its serial number
• erasure to NIST SP 800-88 Rev 2 and IEEE 2883
• Activation Lock checked before the device leaves, so locked units are caught early
• independently tested under the ADISA Product Claims Test

Every device ends up with one of two outcomes: erased with a certificate, or destroyed with one. Nothing falls between.

When a Mac won’t boot

Apple silicon Macs have the SSD soldered to the logic board. If a Mac won’t power on, it can’t be erased with software, and the drive can’t be pulled and wiped separately. Those units are physically destroyed, and recorded by serial number on a certificate of destruction.

Erasure versus shredding

Shredding every Mac feels safest, but it throws away value. A working MacBook that has been properly erased can be reused or resold, and that return often covers the cost of the disposal. Shredding turns it into scrap.

For working devices, certified erasure gives you the same assurance, with proof, and keeps the value. Shredding is for the units that can’t be erased.

Mac data erasure with DataMove

We have been handling Apple estates for well over a decade, from single offices to public sector fleets of thousands of devices. We erase on site or at our secure facility, record every device in our own ITAD platform, and issue a certificate per Mac. Anything with resale value is graded and offered back as buyback against the cost of the job.

If you are retiring Macs and need proof, not just a factory reset, get in touch and we will scope it with you.

Moving a storage array is not like moving a server. Most servers can travel with their drives in place. High-density storage cannot.

A modern 4U storage chassis can hold over a hundred hard drives. Fully populated, a single chassis weighs around 100 kg, against roughly 43 kg empty. The drives are loaded from the top rather than hot-swapped from the front, and the chassis is not built to carry their weight on the road or in the hold of an aircraft. So before anything moves, every drive has to come out.

That is where most of the risk sits. Not in the lifting, but in what happens when the drives go back in.

Why drive position matters

Arrays like these do not treat drives as interchangeable. Data is spread across them using erasure coding, and the controller expects each drive in a known position. Put the right drives back in the wrong bays and, at best, the array spends days rebuilding. At worst, you are restoring petabytes from backup.

So the job when moving a storage array is not simply to remove the drives. It is to remove them in a way that guarantees each one goes back exactly where it came from.

How we approach moving a storage array

Every drive is scanned by serial number as it comes out of the chassis and recorded against two things: the chassis it came from and the bay it sat in.

Each drive is then individually anti-static bagged and labelled with that chassis and bay position. The record and the label say the same thing, so the drive can be placed correctly whether you are reading the paperwork or the bag.

The drives are boxed in purpose-made hard drive cartons and travel on the same pallet as their own chassis. Nothing is consolidated across chassis. If a pallet is delayed, the drives for that chassis are delayed with it, rather than arriving separately and waiting to be matched up.

At the destination, the record works in reverse: chassis by chassis, bay by bay, against the serial numbers captured at origin.

Packing for the journey

Empty chassis are packed in anti-static protective material, two to a pallet, with their drive cartons secured alongside. Pallets are built to standard airliner belly-hold dimensions, with no oversize freight and no untreated timber, so there is no reason for the airline or customs to hold them.

What the client is left with

The drive record does not stop being useful once the array is back up. It is a complete inventory of every drive by serial number, chassis and bay, captured on the day the equipment left. That gives the client an audit trail for insurance, a reference if a drive fails in the weeks after the move, and a baseline for the next time the platform is expanded or retired.

The useful question

If you are moving a storage array, ask whoever is moving it how they will make sure every drive goes back in the bay it came out of. If the answer is “carefully”, keep asking.

An island move looks like a domestic one right up until the ferry. Moving IT equipment to the Channel Islands or the Isle of Man is closer to home than moving it abroad, but it isn’t the same as a run up the M1, and the three islands don’t follow the same rules.

The good news: a customs union

The UK, Jersey, Guernsey and the Isle of Man form a customs union. Equipment already in the UK doesn’t attract customs duty when it arrives on any of the three islands.

That’s where the similarity ends.

Jersey: GST and a declaration

Jersey charges import GST at 5% on nearly all goods coming onto the island, and for businesses there’s no minimum threshold: a single server attracts it. Imports are declared through Jersey Customs’ online system, CAESAR, before the goods are released. A GST-registered business can offset the import GST against the GST it charges, so for many clients it’s a cash-flow point rather than a cost.

Two practical details catch general movers out. Drivers need a completed consignment note on arrival, and vehicle weight and dimension limits on the island are tighter than on the mainland. The vehicle that’s fine for a UK job may not be the right one for Jersey.

We’ve made the crossing in the other direction too: in 2023 we moved thirteen racks of hardware out of Jersey and back to the UK mainland by ferry. Moving equipment off an island has its own paperwork, and it’s worth planning as carefully as the inbound leg.

Guernsey: lighter paperwork

Guernsey sits in the same customs union, and goods arriving from the UK, Jersey or the Isle of Man don’t need a full electronic customs declaration. Of the Channel Islands, it’s the more straightforward.

The Isle of Man: the simplest of the three

The Isle of Man sits within the UK’s customs and VAT area. For paperwork, a move there is the closest of the three to a mainland job. The complexity is the crossing, not the customs.

We’ve worked the Isle of Man route in both directions, uplifting three racks from the island in 2024 and installing five racks of mixed hardware there in 2025. Both went by ferry, with the road legs planned around the sailing.

The part every island shares: the sea

Every island move depends on a crossing. Sailings are fixed, capacity is booked ahead, and weather can cancel a crossing at short notice. A mainland move can slip by an hour; an island move can slip by a day. We plan island jobs around the sailing, with the de-rack timed to it and a fallback if the weather turns.

The useful question

If you’re moving IT equipment to one of the islands, ask whoever’s moving it which island rules apply and how they’ll handle them. If the answer’s the same for all three, it’s the wrong answer.

In 2020 we took on what should have been one of the more straightforward cross-border data centre relocations on our books.

A gambling operator needed around three racks of HPE equipment moved from Leeds to its sites in Gibraltar and Malta, with a backload of old hardware coming home from both for disposal. Regulated sector, fixed destinations, well-understood route. We’d done variations of it before.

Twenty-four hours after our crew crossed into Europe with the outbound load, lockdown came into force.

The job didn’t change. Everything around it did.

The equipment was the same. The destinations were the same. The client still needed it delivered.

What changed overnight was every assumption the route was built on. Which borders were open.

Which roads a commercial vehicle could use. Whether a crew could stop, where they could rest, and what quarantine rules would apply at each crossing on the way back. Rules that had been stable for years were being rewritten by the day, and sometimes by the hour, in different ways in different countries.

The plan that left Leeds was obsolete before it reached its first drop.

What we actually did

Nothing dramatic. We kept checking.

Before every leg, the crew and our planning desk confirmed what was legal for that specific day — not what had been true when we set off. Where a rule was unclear, we got it clarified before moving rather than assuming and finding out at a border. The deliveries went ahead, the disposal backload was collected, and the question became getting the crew home.

That meant coming back through Italy, the country hit hardest and earliest in Europe at the time. It was the leg that took the most care: confirming the vehicle could transit, what the crew could and couldn’t do on the way, and what would apply when they reached the UK.

They made it home. The equipment was delivered. The old kit came back for disposal.

What it taught us about cross-border data centre relocation

The obvious lesson is that you can’t plan for a pandemic. That’s true and not very useful.

The more useful one is that the plan is only valid on the day you check it. We’d always treated the route as something decided at the start and then executed. Since 2020 we treat it as something re-confirmed before every leg, because the conditions a move depends on — borders, access, regulations, availability — can change underneath you while the vehicle is already moving.

The second lesson is about the crew. A route that changes daily needs people on the road who can think, not just drive. The crew that went out in 2020 were making judgement calls in real time, in contact with the office, on information that was hours old. That isn’t something you can script.

Why it still matters

It’s tempting to file this under a once-in-a-century event. It isn’t really.

Borders and rules still change quickly, just less dramatically. Brexit rewrote the paperwork for every UK-to-Europe movement. Tariffs have moved sharply in the last year. Facility access procedures change. Carriers fail — we’ve since had an air freight provider go into administration in the middle of a job. None of it makes headlines the way 2020 did, but all of it can change what’s possible between planning a move and completing it.

The discipline is the same: confirm conditions on the day, not at the start, and put people on the road who can adapt when they change.

The question worth asking

When you’re choosing someone to move equipment across a border, the useful question isn’t whether everything will go to plan. Across enough moves, something won’t.

It’s whether they’ll know on the day, and what they’ll do about it.

More IT teams work remotely than ever. The equipment they look after doesn’t.

Servers, switches, printers and access points still sit in real buildings. When one fails in a way that can’t be fixed over a remote session, somebody has to go and stand in front of it. For a growing number of organisations, there is nobody to send.

That gap is what smart hands services exist to fill.

Where the gap comes from

Two things have widened it.

The first is centralisation. IT support that used to sit in every office has been pulled into central or remote teams, which is efficient right up until a fault needs hands on the hardware.

The second is acquisition. When a business is bought by a larger group, its IT often moves under the parent’s global team. That team may be excellent, and it may be entirely remote. A laboratory or an office that used to have someone down the corridor now has a support desk several time zones away and no physical presence at all.

We’ve recently been talking to exactly that situation: a business with sites across the UK and Ireland, acquired by a global group whose IT team works remotely, looking for someone to own the physical side.

What smart hands services actually cover

The name undersells it. Typical work includes:

Network troubleshooting that needs someone at the rack or the switch. Equipment installation and replacement. Printer and peripheral faults that have beaten remote support. Cabling, patching and tracing. Rack-and-stack, new builds and decommissions. Coordinating with third-party vendors on site, so your team isn’t trying to supervise an engineer by phone.

In short, anything where your remote team has done everything it can and needs a pair of competent hands in the room.

Why the obvious options often fall short

There are usually two alternatives, and both have gaps.

A colocation provider’s own smart hands desk works on tickets. It’s fine for a single well-defined task — reseat a cable, power-cycle a server — and much less useful for anything that needs judgement. A typical half-day of proper on-site work can be the equivalent of five to ten tickets through a standard desk.

A general field service engineer is often capable, but may not know data centre and comms room equipment well, and the person who turns up will usually be whoever is available that day.

Neither builds any knowledge of your sites over time.

What good looks like

The thing that makes smart hands genuinely useful is continuity.

The same engineer wherever possible, so they learn your sites, your cabling, your quirks and your people. A scoping call before each visit so they arrive knowing what they’re walking into, and a wrap-up afterwards so your team knows exactly what was done.

Sessions booked as a half or full day rather than by the hour also change what’s worth doing. If someone is already on site, the three small jobs that weren’t worth a call-out each get done in the same visit.

Be realistic about response times

This is where it’s worth being straight rather than optimistic.

Across a spread-out estate, same-hour response everywhere isn’t realistic unless you pay for engineers to sit idle. What works better is to separate two numbers: a target response that you’ll hit most of the time, and a committed response you’ll always hit. A target of a few hours with next-business-day committed is honest and plannable. A promise of two hours everywhere, followed by a breach, is neither.

It’s also worth measuring from when the request is accepted rather than from when the fault began. Your team exhausts remote support first; the clock starts when you hand it over.

The question to ask

If your IT is remote and your equipment isn’t, the useful question isn’t whether you’ll need someone on site. You will. It’s whether that person will already know your sites when you need them, or be meeting them for the first time.

There are four pallets of server hardware sitting at Heathrow airport as I write this. They have been there for weeks.

The move went perfectly. The equipment was de-racked on schedule, packed, skidded and handed to the freight forwarder on the day it was supposed to be. Nothing was damaged and nobody missed a deadline.

It hasn’t flown because nobody had appointed an importer of record at the other end and it wasn’t something we were able to involve ourselves with.

What an importer of record actually is

Somebody has to be legally responsible for goods entering a country. They are liable for the customs declaration being accurate, for the duty and taxes, and for compliance with whatever import rules apply. That party is the importer of record.

It sounds administrative. It isn’t. It’s a legal liability, and it’s why the appointment takes longer than people expect.

In practice the importer of record is usually the company receiving the goods. That works fine when they have a legal entity in the destination country with the right registrations. It stops working when they don’t – which is common, because plenty of organisations have equipment in countries where they have no corporate presence at all.

Why it takes weeks rather than days

If a third party is going to act as importer of record on your behalf, they need a power of attorney. You are authorising someone to make customs declarations in your name and accept liability alongside you.

No legal team signs that quickly.

They will want to know who the broker is, what exposure the company is taking on, whether the authority is limited or general, and how it can be revoked. On a first shipment they may want the whole arrangement reviewed properly. Some organisations require security clearance checks on the party being authorised.

Meanwhile the equipment sits in a bonded facility accruing storage charges, because the freight forwarder cannot release it and cannot fly it.

None of this is unreasonable. It is a company being careful about signing a liability. The mistake is starting the conversation after the equipment has been collected rather than weeks before.

The entity question nobody asks early enough

Large organisations are rarely a single company. They are a group with subsidiaries, and the one that owns the hardware is not always the one people name in an email.

A recent enquiry came from a group with several brand-level businesses under it, each with its own facilities and IT. “Which entity is importing?” is not a pedantic question — it determines whose name goes on the customs entry, whose tax registration is used, and whose legal team reviews the power of attorney.

Get it wrong and the paperwork is redone from the start.

Ask early, in writing, and ask for the legal entity name rather than the trading name.

Country of origin: the question worth thousands

Here is the one most people don’t know to ask.

If equipment was originally exported from the destination country, it can often return under returned goods relief — free of duty, provided you can evidence the original export. Hardware bought in the UK and shipped to the United States does not qualify. The same hardware, if it had been bought in the US, shipped to the UK and now returning, very often would.

On a consignment worth a few hundred thousand, that difference is real money, and it’s decided entirely by where the kit was originally purchased and whether anyone kept the documentation.

It’s worth establishing before you budget, not after the invoice arrives. And it’s an argument for keeping export records on equipment that might one day travel back.

What to do instead

The physical move is the predictable part. Crews, vehicles, packing and freight are all things that can be scheduled and are rarely the reason a date slips.

So run the customs workstream in parallel from the beginning, not after the equipment is collected:

Establish which legal entity is importing, by name.

Appoint the importer of record and start the power of attorney process immediately. Assume legal review will take weeks and be pleasantly surprised if it doesn’t.

Confirm the tariff classification with the broker rather than assuming it. On server hardware the difference between adjacent codes can attach a substantial surcharge under current measures.

Establish country of origin and find the original export documentation if it exists.

Do all of that and the freight becomes what it should be — a booking.

The realistic truth

Most delays on international equipment moves have nothing to do with the equipment.

Nobody drops a server. The vehicle turns up. The pallets are built properly and the flight is available. What actually goes wrong is that a document needed a signature and the person who could give it was on holiday, or wanted their lawyer to read it first, or wasn’t sure which company they were signing on behalf of.

If you’re planning a cross-border move, the useful question isn’t who can move the equipment. It’s who is going to be the importer of record, and have they started yet.