Importing Elevators from China: The Problems That Actually Happen
Most elevator imports from China go wrong before the container is loaded, not after it arrives. The expensive failures — a car that does not fit the shaft as built, an approval route nobody checked, documents that disagree with the goods, a shipment unloaded onto a site that cannot receive it — are decided in the technical agreement and the weeks before production release. Freight and duty are visible costs; these failures come back as rework, idle installation crews and equipment that cannot be commissioned.
What follows is the order as it runs, with the problem that appears at each step and the control that prevents it.
Why an elevator import fails differently from other equipment
A lift is not a catalogue item with a part number. It is an engineered assembly built for one hoistway, it has to satisfy a code regime in the destination country, it has to fit a building that is usually still under construction when the order is placed, and it is installed by a party that is often not the seller. Three consequences shape every problem below.
- Configuration freezes early. Capacity, car size, door type and travel are fixed before the hoistway exists in measurable final form, so the specification is written against a drawing rather than a building.
- Payment runs ahead of evidence. Production is funded before there is anything physical to inspect. Until the shipment is on the water, documents are the only record of what was bought.
- Responsibility splits at the border. Manufacturing, importing, installing and putting into service are distinct legal roles. Buyers routinely take on one of them without noticing, and that is where liability lands.
Problem 1: the order matched a catalogue, not the shaft
The first failure is a dimensional one, and it is normally invisible until the crates are open. Shaft size is not a standard; it follows capacity, car dimensions, door configuration, rated speed, counterweight position and the system type chosen. When the layout is drawn from an architect's intention rather than a measured survey, the manufacturer produces equipment that is correct to its own drawing and wrong for the building.
Tolerances are where this becomes concrete. They are not set by EN 81-20; they come from the manufacturer's layout drawing and become contractual when that drawing is signed. Published values across the industry follow a recognisable pattern: internal cross-section within roughly ±20 mm per side, plumb within about 25 mm over the full hoistway height — tighter for machine-room-less and high-speed units — pit depth and overhead clearance on a plus-only basis, and sill-to-sill landing alignment within a few millimetres. A shaft that is 40 mm narrow, or out of plumb at the top, is not a rounding error; it means a smaller car, changed counterweight clearances or guide-rail brackets that no longer reach the wall.
The control: survey the shaft as built, floor by floor, and put the numbers into a signed layout drawing before production is released. Attach a deviation log that names, for each out-of-tolerance item, who remedies it and what the remedy is — the civil contractor grinding a protrusion, or the supplier re-engineering brackets. A supplier that accepts a drawing instead of a survey is telling you where the risk will sit later.
Problem 2: the technical agreement stops at the equipment
Most disputes are not about the lift; they are about the boundary. A hoistway is an interface, and every line of that interface needs an owner in writing: guide-rail brackets and their fixings into the structure, landing sill supports, door-frame blockouts, the machine beam or machine-room floor, pit ladder, permanent power supply and earthing point, lighting circuits, shaft ventilation, sump and drainage, and the fire rating of the shaft enclosure.
EN 81-20:2014, which replaced EN 81-1 and EN 81-2 for lifts taken into use after 31 August 2017, moved shaft ventilation explicitly onto the building designer, with the lift supplier obliged to provide heat-emission data for its components. The same standard changed what the equipment itself must contain: protection against unintended car movement, ascending-car overspeed protection extended to rescue operation, door detection by light curtain rather than photocell, a car door locking mechanism, defined fire classification for car floor, walls and ceiling, and higher lighting levels in the car and in defined shaft positions.
The practical effect is that a configuration copied from an older project can be compliant on paper and short of these items in the crate — not because anyone lied, but because the reference predates the requirement.
The control: make the interface schedule a contract annex, with an explicit exclusions list, and require every "by others" line to carry a named party. Then compare the offered configuration against the destination standard clause by clause, and record the comparison. It costs an afternoon.
Problem 3: the code regime was assumed, not established
Chinese and European elevator standards have converged in structure without becoming interchangeable. China's GB/T 7588.1-2020 was issued in December 2020, took effect on 1 July 2022 and replaced GB 7588-2003 and GB 21240-2007, adopting ISO 8100-1:2019 with national modifications. Europe's EN 81-20:2014 and EN 81-50:2014 replaced the earlier EN 81 generation. A product can be properly type-tested in China and still need work to be accepted elsewhere, and the reverse is equally true.
The confusion becomes expensive in the European Union, because Directive 2014/33/EU assigns responsibility to an "installer" — the party that places the complete lift on the market, carries out the conformity assessment and CE-marks it after final inspection. A factory that type-tests components in China is not that party. If your local company or contractor installs the lift, it is likely to be the installer in the directive's sense, and the declaration becomes yours to sign. A Chinese type-examination certificate is evidence about a product; it is not the destination approval.
The control: write the approval route into one sentence before the purchase order — which standard applies, which body performs the assessment, who signs the declaration, and what final inspection is required at handover. Then check that the offered configuration actually supports that sentence.
Problem 4: documents that disagree with the goods
Incomplete documentation is one of the most frequently cited causes of delay in this trade, and the reason is structural: an elevator shipment is many packages of different kinds. A working set covers the commercial invoice, packing list, bill of lading, product specification, drawings, installation manuals and compliance documents where the destination requires them. Classification follows the contents rather than the project: complete lifts under HS 8428.10, escalators and moving walkways under 8428.40, and parts shipped separately under 8431.31 or 8431.39. A project delivered in several shipments can therefore need more than one classification, and each invoice has to describe what that container actually holds.
Wood packaging adds a second file that is easy to overlook. ISPM 15 requires solid-wood crates, pallets and dunnage to be treated and marked — heat treatment to a 56 °C core for at least 30 minutes, or methyl bromide fumigation for at least 16 hours — with a mark carrying the IPPC symbol, the ISO country code, the producer's registration number and the treatment abbreviation. Unmarked wood is treated as untreated. In the United States the remedy for non-compliant packaging is export of the packaging itself, not fumigation on arrival, which turns a marking omission into a storage and re-export problem.
The control: a document matrix agreed before shipment, one row per document with the responsible party, one product description reused verbatim everywhere, and a packing list built from crate numbers rather than a total weight.
Problem 5: packaging that survives the port but not the site
Elevator cargo is awkward by nature: long guide rails, heavy machines, fragile car panels and electronics in the same booking, with long sections on flat racks or in open-top containers and components in standard boxes. The damage that costs money is rarely visible at discharge. It is moisture inside a crate, a rail bent during a lift, a controller that spent weeks in a humid container.
The control: crate numbers that match the packing list exactly, moisture protection sized for a long ocean leg, and a photographic record at loading that shows how the cargo was blocked and braced. Inspect before the container leaves the port area and record exceptions with the carrier present. Damage found on site three weeks later is difficult to attach to anyone.
Problem 6: shortages found when the crew is already on site
Short shipment is the most common receiving failure and the least expensive to prevent. Missing brackets, a set of sills, one safety component: none of it is dramatic, all of it stops an installation. The claim window closes quickly, and by the time the crew is on site the packaging is usually gone.
The control: count pieces against the packing list while the container is still open, photograph each crate before opening it, log shortages the same day with the carrier or insurer notified, and keep the packaging until the count is agreed. A spare-parts list agreed at order stage converts a stoppage into a short delay.
Problem 7: the building was not ready to receive the shipment
Site readiness failures usually get blamed on the supplier. In practice the shaft is the buyer's scope: pit depth and overhead clearance on a plus-only basis, plumb, waterproofing and drainage, door opening positions, fixing points for brackets and machine beam, power supply, lighting and dry storage for crates. Pit water alone damages electrical equipment.
Two timing errors recur. The first is releasing production against architectural drawings instead of a measured survey. The second is shipping to a site with no covered storage, so equipment waits outdoors in a humid climate and arrives at commissioning with corroded terminals and an argument about who pays. One access detail also carries a civil cost: where the pit is deeper than 2.5 m, EN 81-20 requires safer arrangements for entering it and an access door may be needed — difficult to add once the walls are finished.
The control: a readiness checklist signed by the civil contractor and the installing party before shipment release, covering measured dimensions, fixing points, power, access for crates and a storage location. If the survey is still open, send it through the contact page before the layout drawing is frozen rather than after.
Problem 8: nobody owned installation and handover
The final gap sits between delivery and a working lift. In most markets installation must be carried out by a licensed entity, and that licence is local. A Chinese installation licence — ours is a Class A2 Special Equipment Production Licence for Elevator Installation including repair, TS3351339-2026 — authorises work in China, not on a project site abroad. Where supervision was never contracted, where no commissioning test was booked, or where the document set never reached the authority, the equipment is on site and the lift is still not in service.
The control: name the installing entity and its licence before the order, define who provides supervision and for which stages, and list the documents due at handover — as-built drawings, test records, maintenance manual.
A control sequence that follows the order
| Stage | Failure it prevents | Artifact to hold |
|---|---|---|
| Before purchase order | Catalogue selection, unknown approval route | Measured shaft survey, standard and approval note, draft interface schedule |
| Before production release | Interface gaps, code mismatch | Signed layout drawing, exclusions list, component schedule |
| Before shipment | Document mismatch, packaging failure | Document matrix, packing list by crate, loading photographs |
| At receiving | Shortage, concealed damage | Piece count, exception log, survey report if damaged |
| Before installation | Site not ready | Readiness checklist signed by civil and installing parties |
| At handover | Ownership gap | Installer licence, supervision scope, handover document list |
Where a distributor fits, and what to hold one to
Most overseas buyers do not purchase directly from a factory. They buy through a distributor that selects among manufacturers, assembles the export documentation and coordinates installation and service. That structure is normal and can be useful — several product lines, one point of contact for the interface work above — provided the distributor is clear about what it is and who builds the equipment.
ElevApex is a distributor, not a manufacturer: the overseas business company of JIAGUAN Group in Chengdu, China, supplying lifts from multiple brands. We hold a Class A2 Special Equipment Production Licence for Elevator Installation (including repair), TS3351339-2026, and a China AAA credit rating. The part of that position that removes problems is unglamorous: naming the factory, freezing the layout drawing against a real survey, keeping one document set consistent, and holding the receiving protocol so a shortage is logged while the container is still open.
For a specific project, send the measured shaft survey and the destination approval requirement through the contact page, and compare the layout drawing and interface schedule you get back against any other offer. The comparison itself is the useful test.
Frequently asked questions
Is the real risk in shipping or in the specification?
In the specification, because it is fixed first and everything downstream inherits it. Freight problems are usually recoverable with money and time; a car that does not fit the hoistway, or a configuration that misses a requirement of the destination standard, forces a choice between civil rework and re-engineering.
Can a Chinese type-examination certificate support my local approval?
It can support it as technical evidence, and many authorities read test reports and type-examination documents as part of a submission. It does not replace the destination approval: in the European Union the party placing the complete lift on the market carries out the conformity assessment and signs the declaration. Establish the route before the order, not after delivery.
Who is responsible for shaft dimensions?
The building side. The manufacturer's obligation is to state what the equipment needs in its layout drawing; the civil contractor's obligation is to deliver the shaft within those dimensions. EN 81-20 does not set shaft tolerances — they are contractual and manufacturer-specific, which is why the drawing has to be signed and the survey measured rather than assumed.
Which documents should be complete before the balance payment?
A consistent set: commercial invoice, packing list by crate, bill of lading or booking confirmation, product specification, layout and installation drawings, destination compliance documents, and the wood-packaging treatment mark recorded on the packing documents. If a description, quantity or model differs between two files, resolve it before the money moves — otherwise a customs officer or an installation crew finds it.
What should I do if the container arrives short or damaged?
Record it before the cargo disperses. Count against the packing list at destuffing, photograph crates before opening, note exceptions on the delivery receipt with the carrier present, notify the insurer the same day and keep the packaging until the count is agreed. Claim processes turn on what was documented in the first hours.