Published Jul 3, 2026 — by Zhang Wei, Senior Application Engineer
A combination crane is the best lifting solution for multi-zone assembly lines and manufacturing cells where parts move through 3+ stations along non-linear paths. At USD 1,200–2,500 per station vs USD 1,800–4,500 per jib crane, it pays for itself when you hit 3 stations or more. Track layout planning — straight runs, curved sections, switches — is the one thing most buyers get wrong. This guide covers capacity sizing, cost breakdowns by zone count, and a step-by-step layout method we have used on 40+ factory installations.
A combination crane is an enclosed track lifting system with modular straight and curved sections, switches, and turntables. Unlike a single overhead crane that covers a rectangular bay, the combination crane follows your production flow — wherever the track goes, the hoist follows.
On an assembly line, that matters because parts do not move in straight lines. A component might start at a welding cell, move to a machining station, then to a fit-up bench, then to quality inspection. With a combination crane, one hoist travels the whole path. With individual jib cranes, you need a separate unit at every station and someone to transfer the load between them.
We have installed combination cranes in automotive engine assembly lines (0.5 ton hoists on 120 m of track serving 6 stations), electronics cleanrooms (0.25 ton, ceiling-suspended, 8 stations with 4 switches), and aluminum extrusion finishing lines (1 ton, free-standing, 180 m track). The common thread: every factory had 4+ workstations and a non-linear material flow.
Most factories over-spec their combination crane. Here is what we see in practice:
| Application | Typical Capacity | Max Component Weight | Hoist Type |
|---|---|---|---|
| Automotive sub-assembly | 0.5 ton (500 kg) | 120–350 kg | Chain hoist |
| Electronics / white goods | 0.25 ton (250 kg) | 50–150 kg | Chain hoist |
| Aerospace sub-assembly | 1 ton (1,000 kg) | 300–700 kg | Wire rope hoist |
| Battery module assembly | 0.5 ton (500 kg) | 200–400 kg | Chain hoist |
| Heavy equipment assembly | 1–2 ton (1,000–2,000 kg) | 600–1,500 kg | Wire rope hoist |
A simple rule: spec for your heaviest single component, add 25% margin, then round up to the nearest standard hoist capacity. An engine block that weighs 320 kg needs a 0.5 ton hoist (320 × 1.25 = 400 kg, round up to 500 kg). Do not spec for the average or you will hit overload on your first heavy shift.
I have seen more combination crane installations fail on layout than on capacity. The hoist might be fine for the load, but the track layout does not match how people actually work.
Step 1 — Map your stations. Draw the factory floor with each workstation, material delivery point, and inspection area marked. Include every column, machine base, and overhead obstruction. This is your base map.
Step 2 — Define the hoist path. Draw the route a hoist would take between stations. If the path is a straight line, you need straight track and maybe one switch. If it zigzags around columns, you need curved sections. If you have branch lines (a hoist can go to station A or station B), you need switches.
Step 3 — Check ceiling clearance. Ceiling-suspended track needs at least 300 mm between the lowest building structure and the top of the hoist. Free-standing support columns bypass this issue but add USD 2,000–6,000 to installation cost.
Step 4 — Plan the switch and turntable positions. Switches let a hoist change from one track branch to another. Turntables let it rotate 90° or 180° in tight spaces. A typical 5-station layout needs 2–3 switches and 1–2 turntables.
Step 5 — Add buffer zones. Leave 500–800 mm between each workstation boundary and the nearest switch or curve. This gives operators room to position loads without crowding the track component.
| Layout Size (stations) | Total Track Length | Switches | Curved Sections | Turntables |
|---|---|---|---|---|
| 3 stations (linear) | 20–40 m | 0–1 | 0–2 | 0 |
| 5 stations (L-shape) | 50–80 m | 2–3 | 2–4 | 0–1 |
| 8 stations (multi-branch) | 100–180 m | 4–6 | 4–8 | 1–2 |
| 10+ stations (complex) | 150–250 m | 6–10 | 8–12 | 2–4 |
This is the question we get most often from factory owners. The short answer: jib cranes win at 1–2 stations. Combination cranes win at 3+ stations. Here is why.
| Number of Stations | Jib Cranes (installed) | Combination Crane (installed) | Savings with Combo |
|---|---|---|---|
| 1 station | USD 1,800–4,500 | USD 1,200–2,500 | No clear winner |
| 3 stations | USD 5,400–13,500 | USD 5,000–12,000 | ~10% savings |
| 5 stations | USD 9,000–22,500 | USD 8,000–18,000 | ~20% savings |
| 8 stations | USD 14,400–36,000 | USD 15,000–30,000 | ~17% savings |
| 10 stations | USD 18,000–45,000 | USD 22,000–40,000 | ~11% savings |
The savings flatten at 8+ stations because the track network cost scales up. But the real advantage is not just upfront cost — it is flexibility. A combination crane lets you reassign hoists between stations when production changes. You cannot do that with fixed jib cranes.
| Factor | Ceiling-Suspended | Free-Standing |
|---|---|---|
| Building structure needed | Steel beam or concrete slab | Concrete floor (≥150 mm thick) |
| Minimum ceiling height | 4.5 m | N/A (columns support the track) |
| Installation cost (added) | USD 0 (included in system) | USD 2,000–6,000 |
| Best for | Existing buildings with strong ceilings | New builds, workshops with low roofs |
| Reconfiguration ease | Moderate (re-anchor to ceiling) | Easy (reposition columns) |
In our experience, about 70% of combination crane installations are ceiling-suspended. The additional cost of free-standing support columns (USD 2,000–6,000) usually only makes sense when the ceiling cannot take the load or when you know the factory layout will change within 2–3 years.
Here is an actual budget from a 5-station automotive component assembly line we quoted in Q2 2026. The customer makes transmission sub-assemblies with an average part weight of 180 kg.
| Item | Qty | Unit Price | Total |
|---|---|---|---|
| 0.5 ton chain hoist (electric) | 3 | USD 1,800 | USD 5,400 |
| Enclosed steel track (60 m) | 60 m | USD 45/m | USD 2,700 |
| Curved sections (90°) | 4 | USD 280 | USD 1,120 |
| Track switches | 3 | USD 520 | USD 1,560 |
| Ceiling suspension kit | 1 | USD 2,800 | USD 2,800 |
| Installation labor | 1 | USD 3,200 | USD 3,200 |
| Freight & customs (CIF) | 1 | USD 1,500 | USD 1,500 |
| Total Installed Cost | USD 18,280 | ||
The equivalent with 5 separate jib cranes would have been roughly USD 12,000–22,500. The combination crane landed in the middle, but the customer picked it for a different reason: they can add 2 more stations next year without buying new hoists — just extend the track.
Here is the checklist we use with every customer. Go through these before asking for a quote.
Typically 5–8 working days for ceiling-suspended systems, 7–10 days for free-standing. This includes track assembly, hoist installation, wiring, and commissioning.
Yes. The modular track design lets you bolt on straight extensions and add switches. Most systems can be expanded by 30–50% of the original track length before needing structural upgrades.
Monthly inspection of track joints and switch mechanisms, quarterly hoist load testing, and annual certification. The enclosed track design keeps debris out, so track maintenance is minimal compared to open-rail systems.
In most jurisdictions, ceiling-suspended systems require a structural engineer's sign-off on the building's load capacity. Free-standing systems usually need a foundation inspection. Check your local building codes before ordering.
Send us your floor plan and station count — we will design the track layout and send a budget within 2 working days.
Get a Quote →