Methanol fuelling for ships crossed a threshold in 2026. What used to be a demonstration is now routine at berths, putting hand and foot protection under a spotlight LNG programmes never really faced.
The Volume Is Finally There
Late September 2026 brought a cluster of firsts in Asian ports. A southern Chinese container terminal completed its first alongside methanol bunkering for an international container vessel, with roughly 280 tonnes transferred while cargo operations continued outside the restricted zone. Days later, one of the country's largest bulk ports ran a simultaneous three-fuel operation, delivering LNG, green methanol and a biofuel blend to three ships in the same window. In northern China, a newbuild dual-fuel container ship took on methanol by truck-to-ship transfer at a shipyard quay. Earlier in the year, a west-coast Indian port completed a shore-to-ship trial verified on site by a classification society and was rated at level 6 on the port readiness scale.
The pattern matters more than any single transfer: methanol is arriving at working berths, not isolated anchorages, and next to container cranes.
Why Methanol Is Not LNG
LNG programmes trained crews around cold and oxygen displacement. Methanol brings a different profile. Its flash point sits close to ambient temperature, its flammable range is wide, and at the concentrations that matter a methanol fire can burn with a flame that is nearly invisible in daylight. Vapour is slightly heavier than air, so it gathers in bilges, culverts and low spots that are easy to walk past.
The other half of the problem is toxicity. Methanol is absorbed through skin and causes systemic harm, which means a glove or boot is not merely a barrier against a splash. It is the primary control on how much enters the body. Any specification copied across from cryogenic fuel work will miss this entirely.
Where Gloves and Boots Actually Fail
The failure mode is rarely a visible melt-through. Methanol moves through many common elastomers at measurable rates without leaving an obvious mark, so a glove that looks intact can be transferring material for the whole coupling operation. Perspiration inside a glove and splash on the outside both speed that transfer up.
Boots have their own version of the same trap. Runoff pools inside a boot top, contaminated wash water soaks cuffs, and smooth soles behave badly on just-washed decks. Add a low flash point and vapour control becomes a clothing question as well: antistatic footwear stops being a formality.
Response planning also gets harder. Crews walking toward a fire they may not see clearly need thermal performance and chemical resistance in the same garment, and the glove cannot be the weak point.
What Belongs in the Specification
Buyers should ask for permeation breakthrough data against methanol itself, not a generic solvent panel, at the temperatures and durations of actual coupling work. Butyl rubber and other qualified elastomers remain the reference materials, and the change-out rule should be tied to hose connections rather than to how a glove looks. Footwear should be specified as cleanable, non-absorbent and antistatic, with full size coverage and a stated policy on reuse after washdown.
Drills deserve attention too. A regulator-led methanol bunkering leak exercise in a Chinese port in mid-2026 tested joint response with vessel staff. Exercises should push past hose handling into glove doffing, decontamination and the bagging of spent PPE. Those are the steps that decide whether a transfer stays a routine operation.
Ask your supplier one blunt question: what is the breakthrough time against methanol, and who measured it?