
The speciality products that few manufacturers make
Most of our range is cookware anyone could buy somewhere. Four items are not, and they are the ones we are asked about most.
Why stainless steel behaves the way it does, how to get the most out of heavy-gauge cookware, and the development work that goes into the range. Written by the people who make it.
50 articles

Most of our range is cookware anyone could buy somewhere. Four items are not, and they are the ones we are asked about most.

Storage is where vessel choice quietly decides food safety, taste and shelf life — and it gets far less thought than cooking does.

A machined rib on the bottom of a 10 mm plate is an unusual thing to find on cookware. It is there for a measurable reason.

Indian cookware sizes are not inches, not litres and not centimetres. Here is what the numbers actually mean.

A film a few atoms thick is the reason steel is safe to store food in. Here is how it works, and how to avoid damaging it.

Thirteen sizes, one gauge, no options. A product designed around a single failure mode.

Steel tolerates far more aggressive cleaning than most cookware. There are still three things worth not doing.

The easiest way to reduce the cost of any vessel is to make it thinner. It is also the fastest way to ruin it.

Indian cooking is unusually hard on cookware. Tamarind, tomato, curd and long simmering all attack metal — and stainless steel is the one common material that shrugs it off.

A product that solves a logistics problem rather than a cooking one — which is why it is built differently.

From 1 mm to 10 mm, every thickness in our range exists for a specific reason. This is the map.

The most acidic things in an Indian kitchen are exactly the things stored longest. Here is what that means for the container.

Everything about this vessel is the opposite of a deep-frying pan, and every one of those differences is deliberate.

The instinct is to scrub harder. The method that actually works involves almost no scrubbing at all.

Removing the weld from a large vessel is obviously desirable. Doing it at 125 litres is a manufacturing problem.

Tamarind, tomato, curd and lemon are the backbone of Indian flavour. Here is what they do to the metal underneath them.

Buy the vessel for the batch you actually cook, not the one you cooked once at a wedding.

Plastic is lighter and cheaper on day one. Over a year of real service the comparison looks quite different.

Blue and gold patches on a pan look alarming. They are harmless, and they wipe off.

Two metals that expand at different rates, joined, and then heated and cooled every day for years. The bond is the whole problem.

The single number that changes how a pan behaves is its thickness. Here is the physics, and where each gauge belongs.

Both are offered in the same sizes and the same 6 mm plate. The choice is about how your station is laid out.

Catering food spends hours in transit. That journey is where most temperature control is lost.

The white film on a clean pan is not from the pan. It is what the water left behind.

Induction is unforgiving of a base that is nearly flat. Holding flatness through heat is harder than achieving it cold.

Induction does not heat the hob. It heats the pan — and only if the pan is made of the right kind of steel.

What to order first when you are equipping from nothing, and what can wait.

Steel cools food faster than plastic. That single fact has real food-safety consequences.

Ordinary steel wool does two kinds of damage to stainless steel, and one of them looks like rust.

We make thirteen product lines. Rather more than thirteen have been tried.

Copper moves heat sideways roughly twenty times faster than steel. On a narrow pot that hardly matters. On a wide, shallow one it decides the dish.

Finishes can flatter and claims can stretch. Weight is arithmetic.

Dry storage is not the obvious case for steel, but for pest control and oil-heavy ingredients it is the right answer.

If a vessel has started spotting or staining, it can almost always be brought back. The process is simple and it is not a repair.

Commercial pots almost never fail in the middle of the metal. They fail at the joins — which is why we build without any.

The label on the box is not the test. A magnet and a straight edge are.

The difference is not cleaning technique. It is what happens at the surface of the material itself.

Stainless steel shrugs off acid, heat and abrasion. Chlorides are the exception, and the damage they do is permanent.

Dum is a sealed, undisturbed technique. That removes every tool the cook normally uses to correct an uneven pan.

The purchase price is the smallest number in the calculation. Here is the rest of it.

The 5–60 °C window is where food becomes unsafe. Your cookware is part of how long you spend in it.

A fair question with an uncomfortable answer: it depends far more on construction than on how carefully anyone treats it.

Milk sugars caramelise and stick at a temperature well below boiling. The only real defence is metal thick enough to have no hot spots.

Steel water vessels are in almost every Indian home. The habit long predates the explanation, but the explanation holds up.

An honest note on the problems we have not solved yet.

Every failure in commercial frying traces back to the same thing — the oil temperature dropped and did not come back fast enough.

A tawa that drops temperature every time dough hits it will never produce consistent bread. Mass is the whole answer.

Non-stick has a place. A commercial kitchen running eight hours a day is not it.

Cooks who move to steel from non-stick usually have the same complaint for about a week. Then it stops.
If your kitchen has a problem with a vessel, tell us. Most of what is written here started as somebody’s specific complaint.