Heavy-duty levelling foot with a steel or stainless pivot joint and base, for frames that have to carry a high static load, resist a side load or work close to heat.
| Material | Zinc-plated steel or stainless steel base and joint |
|---|---|
| Alloy Grade | Not applicable |
| Temper | custom |
| Section Size | Fits profile ends with M12-M24 thread insert |
| Slot | M12 / M16 / M20 / M24 stem thread |
| Length | Stem 60-120 mm; overall height 85-230 mm |
| Tolerance | ±0.4 mm on thread pitch diameter |
| Surface | Zinc plated 8-12 µm; stainless 304 / 316 |
| MOQ | 100 |
| Lead Time | 20-30 days after deposit |
| Loading Port | Shanghai / Ningbo |
| Supply Ability | 40,000 pcs per month |
| Payment Terms | T/T 30% deposit + 70% before shipment | L/C at sight |
| Trade Terms | FOB | CIF | EXW |
| Certifications | ISO 9001:2015 | ISO 14001 | RoHS | REACH |
Levelling feet · Heavy duty
A metal pivot foot uses a steel or stainless steel joint and base rather than a polymer one. It does the same levelling job — the joint lets the pad sit flat on an uneven floor — but it carries a far higher load, it does not creep, it takes a side load without deforming, and it works close to heat.
The foot is the last component in the load path between the frame and the floor, so on a heavy installation it is the part that decides whether the load reaches the slab evenly or concentrates on one edge. Where a frame weighs several tonnes, or where the equipment on it vibrates, the metal foot is the only sensible choice.
On a light bench the difference between a polymer and a metal foot is small and the polymer foot is cheaper. On a heavy frame the difference becomes structural. Three load cases separate them.
| Load case | What happens to a polymer foot | What the metal foot does |
|---|---|---|
| Sustained heavy static load | Creeps — the frame slowly sinks on one corner | Holds the setting indefinitely |
| Side load from a moving frame | Pad deforms and the joint opens up | Takes the shear through the steel base |
| Vibration from machinery | Damps well, but the joint wears at the pivot | Resists wear; damping handled by a separate pad |
| Heat near a process | Softens above about 90 °C | Unaffected well beyond 200 °C |
| Point load on a hard floor | Pad flattens over time | Spreads the load without deforming |
Practical point: on a frame over about two tonnes, the foot is no longer a catalogue item — it is a load path that should be checked. Send us the frame weight, the number of legs and the centre of gravity, and we will return the stem size, the base diameter and the floor bearing pressure.
Up to about 5,000 kg per foot on the largest M24 size, static. A dynamic or vibrating installation should be derated to about half that, and the three-foot rule still applies for a four-leg frame.
Not under normal load, but a very high point load can spall a weak screed. Where the floor is a thin screed or a coated finish, add a load-spreading plate or an elastomer pad under the foot.
Yes. A metal foot transmits more vibration between frame and floor. Where that matters, use an anti-vibration base with a bonded elastomer pad rather than a plain metal pad.
Yes, in 304 or 316. Use 316 where chlorides or aggressive cleaning chemicals are present, and match the anchor bolts to avoid galvanic corrosion.
Yes, on any frame that vibrates. The nut locks the stem against the profile end so the levelling setting cannot walk.
Tell us the frame weight, the number of legs and where the mass sits. We will return the stem size, base diameter, joint type and floor bearing pressure, with FOB pricing within one working day.
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