Chairlift and Cable Car for Sale
Uphill access for scenic areas and ski resorts. Fixed-grip and detachable chairlifts, sightseeing gondolas and passenger ropeways — line length 300–2,000 m, vertical rise 50–400 m, capacity 400–2,400 people per hour. The lift sets the capacity of everything above it, so it is the first thing to size.
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At a glance
- Fixed-grip chairlift, detachable chairlift, and gondola with enclosed cabins
- Line length 300–2,000 m, vertical rise 50–400 m
- Fixed-grip speed 2.3–3.0 m/s; detachable 5–6 m/s
- Tower spacing 60–150 m depending on terrain and profile
- Scope: line design, towers, stations, rope, carriers, electrical and commissioning
Three products, and what each one is for
Most enquiries are decided by one question: how many people per hour, over what distance.
Chairlift
Chairs clamped permanently to the rope, riders sit in the open. Simple, robust, cheapest per metre. Loading and unloading happen at rope speed, which caps how fast the line can run.
Detachable chairlift
Chairs release from the rope in the station and slow down for loading. The line itself runs at roughly twice the speed, so the same tower spacing carries far more people.
Gondola
Cabins instead of chairs. Weather protection, better for families and year-round sightseeing, and the usual choice where the ride is part of the attraction rather than just transport.
Aerial tramway
Large reciprocating cabins on two tracks — a different engineering and approval regime. We say so early rather than waste your time; if your project needs one, we will tell you at first contact.
Fixed-grip or detachable
The decision is arithmetic, not preference.
| Fixed-grip | Detachable | |
|---|---|---|
| Line speed | 2.3–3.0 m/s | 5–6 m/s |
| Capacity, same spacing | Baseline | Roughly double |
| Capital cost | Lower | Higher — grip mechanism and station drives |
| Maintenance | Fewer moving parts | Grip and station mechanics need scheduled attention |
| Best fit | Up to roughly 1,000 pph, shorter lines | Above roughly 1,000 pph, or long lines where ride time matters |
The break-even sits near 1,000 people per hour for the same number of towers. Below that, a fixed-grip lift does the same job for less money and less maintenance. Above it, adding carriers to a fixed-grip line stops working — you run out of spacing — and the detachable becomes the only way to move the volume.
Sizing the line in one line of arithmetic
Before any drawing, this is the number that decides everything else.
example: 6 s interval × 4 riders = 600 pph
example: 4 s interval × 6 riders = 1,350 pph → detachable territory
Chair interval is what the station can physically dispatch, not what the rope allows. That is why capacity upgrades so often end as station rebuilds rather than as more chairs: the rope can always carry more, the loading area cannot always dispatch more.
Technical specification
Indicative ranges. Final values are fixed with the line profile.
| Parameter | Typical range | Notes |
|---|---|---|
| Line length | 300–2,000 m | Slope distance, station to station |
| Vertical rise | 50–400 m | Governs rope tension and drive sizing |
| Line speed | 2.3–3.0 m/s fixed · 5–6 m/s detachable | Station design sets the practical limit |
| Tower spacing | 60–150 m | Terrain and rope sag decide it; wider spans need taller towers |
| Ground clearance | 2.5 m minimum over snow; 5–6 m over roads | Local code governs; both figures need checking |
| Carriers | 2–8 per chair; 4–10 per cabin | Capacity follows carrier count and interval |
| Drive | Electric, with diesel or gravity evacuation backup | Evacuation drive is a licensing requirement in most markets |
| Wind limit | Typically 15–20 m/s, design dependent | Exposed spans derate the whole line, not just one tower |
| Lead time | 8–14 months | From approved line profile to shipment |
| Installation | 4–8 months | Civil works, erection, rope splicing, commissioning |
The line, not the machine
Three things that decide whether a ropeway project succeeds, and none of them are in the catalogue.
Profile. A ropeway needs a line that keeps the rope above the ground at every point between towers, with enough clearance for the sag of a loaded carrier. A convex break in slope is the classic problem: the ground rises into the rope between two towers, and the fix is either an extra tower or a taller one — both of which move cost. Reading the profile properly at concept stage is worth more than any discount on hardware.
Wind. Exposed ridges and valley crossings produce cross-wind that lifts and swings carriers. The design handles it with carrier weight, rope tension and sometimes a different carrier type, but the operating limit that results is a commercial fact: a line that closes twenty days a season is not the same asset as one that closes three.
Evacuation. Every tower has to be reachable and every carrier has to be evacuable, by rope access or by ladder, within a time the regulator accepts. This is the single most common reason a ropeway design fails approval after the hardware is chosen — and the cheapest point to fix it is at line design, not after the towers are standing.
Approval, honestly
This is the part where a ropeway differs from every other product on this site.
Cable-propelled passenger transport is regulated as safety-critical equipment in essentially every market, and the regime is national. European practice follows the EN 12929 and EN 12930 series with a notified-body assessment; other regions run their own type approval and a local inspection regime, and several require an in-country operating licence holder. We design and manufacture to the standard you nominate, and we provide the technical file, calculations and material certification that the assessment needs.
What we do not do is claim certifications we have not obtained for your market, or imply that approval is a formality. For most projects the realistic structure is a partnership: we supply the line, the hardware and the commissioning engineers; a local partner holds the licence and handles civil works and the authority interface. We will say plainly at first contact which side of that line we can stand on for your country.
Cost and schedule
Four lines, and the two that dominate.
Budget splits into line equipment (towers, rope, carriers, stations, drives), civil works, erection and rope splicing, and approval. Equipment is the predictable line; civil works and erection are not, because they depend on access roads, foundation conditions at each tower and how much of the work local contractors can do. On a remote site, getting a crane to tower 7 can cost more than tower 7.
We do not publish a headline price, because the same 1,200 m line can differ by a factor of two across two mountains. What we issue before the survey is a budget band split by line, carriers, stations and drive, with the assumptions written down.
Typical configurations
Three sizes, from a short sightseeing lift to a full resort line.
| Site | Line length | Rise | Type | Capacity |
|---|---|---|---|---|
| Scenic viewpoint lift short ride, sightseeing | 300–600 m | 50–150 m | Fixed-grip chairlift or small gondola | 400–700 pph |
| Mid-size resort year-round access | 600–1,200 m | 150–300 m | Fixed-grip 4-place, or detachable | 700–1,400 pph |
| Destination line high volume, long ride | 1,200–2,000 m | 300–400 m | Detachable chairlift or gondola | 1,400–2,400 pph |
Installation and maintenance
Who is on site, and what the operator inherits.
Installation runs foundations, tower erection, station assembly, rope pulling and splicing, carrier mounting, then electrical and control commissioning, load testing and evacuation drills. Rope splicing and tensioning are specialist operations carried out by our own crew — it is the step most often subcontracted badly, and the consequences show up as vibration and uneven wear for years.
Maintenance is scheduled and documented: daily pre-opening checks, monthly rope and grip inspection, annual non-destructive testing of critical components, and a spare parts holding that includes grips, sheave assemblies and at least one drive component. A ropeway without a spares strategy is one breakdown away from a season lost.
Related scenic-area equipment: funiculars and magic carpets where the climb is short and the gradient steep, observation towers where the destination is vertical, glass bridges for the crossing at the top, alpine slides to give guests a reason to come down slowly. A single site survey can cover all of them, because the survey work is the same.
Frequently asked questions
What is the difference between a chairlift, a gondola and a cable car?
A chairlift carries seated riders in the open on chairs clamped to the rope. A gondola uses enclosed cabins, usually detachable, and suits year-round sightseeing. “Cable car” is used loosely for all of these, but strictly refers to an aerial tramway — large reciprocating cabins on two tracks, which is a different product and approval regime.
Fixed-grip or detachable — which do we need?
Size the capacity first. Below roughly 1,000 people per hour, a fixed-grip lift does the job for less money and less maintenance. Above that, spacing runs out on a fixed-grip line and a detachable becomes the practical answer.
How much does a chairlift cost?
Four lines: line equipment, civil works, erection and splicing, approval. Equipment is predictable; civil works and crane access are not. We issue a budget band split by line, carriers, stations and drive, with assumptions stated.
What certification is required?
It depends entirely on the country. European practice follows EN 12929 and EN 12930 with notified-body assessment; other regions run national type approval plus a local inspection regime, and several require an in-country licence holder. We design to the standard you nominate and supply the technical file — but we do not claim certifications we have not obtained for your market.
How much wind can it operate in?
Typically 15–20 m/s depending on design, but the figure is line-specific: an exposed ridge crossing derates the whole line, not just that span. The operating limit is worth modelling at concept stage, because it directly affects the number of revenue days per year.
How long does a ropeway project take?
Roughly 8–14 months from an approved line profile to shipment, and 4–8 months on site including civil works, erection, rope splicing and commissioning. Approval time runs in parallel and is the item most often underestimated.
Can you handle the approval in our country?
Not alone, and we will say so. For most markets the workable structure is a partnership: we supply the line, hardware and commissioning engineers, while a local partner holds the operating licence and handles civil works and the authority interface. We will tell you at first contact which side we can stand on for your country.
What happens if the drive fails with riders on the line?
Every installation includes an auxiliary evacuation drive — diesel or gravity — sized to bring carriers into the stations. Auxiliary drives and evacuation drills are part of commissioning and part of the licensing file in most jurisdictions.
Send us the profile, we will send back the line
Line length, rise, required capacity and the country of installation are enough for a first answer: which type fits, what the capacity really is, and what the approval route looks like.