What Pans Work on Induction?

1. Why Induction Is Picky About Pans

A gas burner or a radiant electric ring makes heat and then pushes it into whatever sits on top. Induction does not make heat at all until a pan arrives. Under the glass is a flat copper coil carrying an alternating current that reverses direction tens of thousands of times a second. That creates a rapidly changing magnetic field just above the surface, and when a suitable pan sits in that field, currents are induced in the metal of its base. The resistance of the metal to those currents is what produces heat, and in iron-rich metals the constant flipping of magnetic domains adds more on top.

The word that matters is suitable. The effect works best in a metal that is both ferromagnetic and relatively resistive, which is a description of iron and steel. Aluminum and copper conduct electricity so well that the induced currents meet almost no resistance and generate very little heat at the frequencies a home hob runs, and glass and ceramic do not conduct at all. Put a copper saucepan on a standard induction zone and the electronics see almost nothing there; most hobs will flash a pan-missing indicator and then switch the zone off after a short wait.

This is the whole reason the cookware question exists, and it is also the source of induction's advantages. Because the pan itself is the heating element, almost no energy is wasted heating air around the sides, the glass stays relatively cool away from the pan, and the response to a change in setting is close to instant. We go through those trade-offs in detail in our induction vs gas cooktop comparison, but for this guide the takeaway is simple: the pan is half of the appliance, and the wrong pan cripples the hob.

The same principle turns up elsewhere in the kitchen. The better rice cookers use an induction coil around a metal inner pot instead of a hotplate underneath it, which is why IH models heat more evenly; our rice cooker guide covers when that upgrade is worth paying for. In both cases the manufacturer controls the vessel. With a cooktop, you supply it, and that is where things go wrong.

So the useful question is not just does this pan work, but how well. Induction compatibility is a spectrum. A heavy cast iron skillet couples superbly, a fully clad stainless pan with a magnetic outer layer couples very well, an aluminum nonstick pan with a small perforated steel disc pressed into the base couples adequately, and a pan that only just passes the magnet test may heat at half speed and hum the whole time. If you are buying new, the pans in our best induction cookware guide sit at the strong end of that spectrum for a reason.

2. How to Tell If a Pan Is Induction Compatible: The Magnet Test and Its Limits

Take any fridge magnet and hold it against the outside of the pan's base, not the side and not the inside. If it snaps on and you have to pull to remove it, the pan will work. If it does not stick at all, the pan will not work on a standard induction hob. That one test settles the question for the large majority of pans in a typical cupboard, and it costs nothing, which is why every cooktop manual and our own pillar guide lead with it.

Check the base specifically, and check more than one spot. Plenty of pans have a non-magnetic body with a magnetic plate bonded only to the bottom, so a magnet slides off the walls but grabs the base. Some have a plate that covers only the middle two-thirds, which you can find by sliding the magnet outward from the centre until it lets go. Where it lets go is the edge of the usable heating area, and a pan whose magnetic disc is much smaller than its base will heat a bright circle in the middle and leave a cooler ring outside it.

Here is where the test is good but not perfect. It is a yes or no answer to a question that has a range of answers. A magnet that grips weakly, or slides down a tilted base, usually means a thin magnetic layer, a perforated disc with a lot of holes, or a stainless alloy that is only faintly magnetic. Those pans will usually be detected and will heat, but slowly, often with more noise, and some hobs will limit the power they deliver or drop the pan intermittently at low settings. A strong grip is a better predictor of good performance than a weak one is of failure.

There are two other checks worth knowing. The first is the induction symbol, a horizontal coil that looks like a stretched spring, stamped on the base or printed on the packaging. It is a manufacturer's claim rather than a regulated certification, so treat it as a strong hint and confirm with the magnet. The second is the hob itself: put an inch of water in the pan, set it on the zone at a middle setting, and watch. If the display flashes a pan-missing symbol or the zone shuts off, it is not being detected. If the water starts moving within a minute or two, it works, and timing how long a quart takes to boil against a pan you know is good tells you how well.

3. Can You Use Stainless Steel on Induction? 18/0, 18/8 and 18/10

Usually yes, but stainless steel is a family of alloys, and the family splits cleanly on this question. The numbers stamped on cookware give the chromium and nickel content. 18/10 means roughly 18 percent chromium and 10 percent nickel, and 18/8 is the same idea with slightly less nickel; both are versions of the alloy usually called type 304. Nickel changes the crystal structure of the steel into what metallurgists call austenitic, and austenitic stainless is essentially non-magnetic. A pan made entirely of 18/10 will not work on induction.

18/0 has the chromium but no nickel, and it is a ferritic steel, usually type 430. Ferritic stainless is magnetic and works on induction. It is cheaper and a little less corrosion resistant than 18/10, which is why makers rarely use it for the cooking surface on premium pans and frequently use it for the outer layer. That combination is the answer to the confusion: an 18/10 interior for the food, an aluminum core for even heating, and a magnetic stainless exterior for the hob.

That is exactly how All-Clad builds its D3 line, the overall pick in our induction cookware roundup. All-Clad states that D3 has a magnetic stainless exterior and is induction compatible, and the same three-layer logic applies to the Tramontina Tri-Ply Clad set that is our value pick. Demeyere goes a step further on its Atlantis line and engineers the base specifically for induction, with the magnetic layer running across the full diameter. If a clad pan's marketing mentions an 18/10 interior and an 18/0 or magnetic exterior, it will work. If it mentions 18/10 throughout with no exterior layer, check before you buy.

One trap catches people with older stainless. Type 304 is non-magnetic as made, but heavy forming, such as deep-drawing a pot, can leave parts of it faintly magnetic. A fridge magnet may cling weakly to the base of an old all-18/10 stockpot and then fail to hold when you tilt it. That faint attraction is not enough for a hob to work with. This is the clearest example of why a weak grip should be read as probably not, or poorly, rather than yes.

Disc-bottom stainless, where a thick capsule of aluminum is sealed under a steel plate on the base only, also works if the plate is magnetic, which it nearly always is on anything sold in the last decade. The difference from fully clad cookware is in the walls, not the base: the sides of a disc-bottom pot stay cooler because no aluminum runs up them. For stockpots and saucepans that hardly matters. For sauté pans and skillets, fully clad is worth the money.

4. Material by Material: Iron, Steel, Aluminum, Copper, Nonstick, Glass

Cast iron and enameled cast iron: excellent

Cast iron is about as good as induction cookware gets. It is thick, highly magnetic and heavy, so it couples strongly, runs quietly, and holds its temperature when cold food goes in. Enamel on the outside does not block the field, which is why an enameled Dutch oven like the Le Creuset in our pillar guide works perfectly. The one real downside is the glass: a rough cast base slid across the hob will scratch it, so lift, do not drag. We cover heat-up behaviour, warping and scratching in does cast iron work on induction.

Carbon steel and enameled steel: excellent, with care

Carbon steel skillets and flat-bottomed woks are mostly iron and couple as well as cast iron, but they are thinner and lighter, so they heat faster and are more prone to warping if blasted empty on boost. A warped carbon steel pan spins and rattles on flat glass. Enameled steel, the thin porcelain-on-steel used for stockpots, kettles and roasting pans, also works well, but its thin walls create hot spots and the enamel can crack if the pan is heated dry at full power. Use a middle setting and something in the pan.

Aluminum and copper: only with a bonded steel base

Bare aluminum and bare copper do not work on standard home induction. Their electrical resistance is too low for the hob to heat them, however thick the pan is. Both become compatible only when the maker bonds a magnetic steel plate to the base, either fully encapsulated or as a perforated disc pressed into the aluminum. Copper cookware sold as induction-ready works the same way, with a steel layer on the outside of the base. There are commercial all-metal induction units, such as Panasonic's Met-All line, that run at higher frequencies to heat aluminum and copper, but standard residential hobs are not built that way.

Nonstick: depends entirely on the base

Nonstick is a coating, not a material, so the question is what is underneath it. Most nonstick pans are aluminum bodies, and the induction-ready ones have a steel plate on the base; look for the visible disc or the coil symbol. That includes so-called ceramic nonstick, which is a sol-gel coating on an aluminum pan rather than a ceramic body. Hybrid pans like the HexClad in our roundup are built on a magnetic tri-ply base and work well. Pans with only a small pressed-in disc work, but the coupling is weaker and the outer ring of the pan runs cooler.

Glass, ceramic, stoneware and clay: no

Borosilicate glass, solid ceramic, stoneware, terracotta and clay cookers do not conduct electricity and will never be detected. A few are sold with a metal plate fused to the base, and those work at reduced speed; otherwise an interface disk is the only route. Before using one on a disk, check the maker's guidance, because rapid, concentrated heat from a hot metal plate is not what most ceramic pieces are designed for. And whatever the material, follow the cookware maker's care instructions over the machine's: most nonstick and bare aluminum makers recommend hand-washing because dishwasher detergent is hard on coatings and exposed aluminum, while clad stainless and enameled pieces generally cope; our dishwasher guide covers the machines themselves.

5. Base Size, Flatness and Shape: The Pan Has to Be Detected

Magnetism is necessary but not sufficient. Every induction zone has a minimum amount of magnetic base it needs to see before it will switch on, which stops the hob from heating a dropped spoon or a ring. Manufacturers state this differently. Some list fixed minimum base diameters per zone, commonly in the range of about 4 to 6 inches depending on the size of the element. Others express it as a share of the zone's diameter. Several European makers put the general floor at roughly 12 to 14 centimetres, about 4.7 to 5.5 inches. Your cooktop manual has the exact figures, and it is worth looking them up before buying small pieces.

The pans that fall foul of this are predictable: small milk pans, butter warmers, two-cup moka pots, tiny egg pans and espresso jugs. A stainless moka pot sold as induction-ready can still fail to register on a large zone simply because its base is too narrow. The fix is to use the smallest zone on the hob, which nearly always has the lowest detection threshold. If even that will not pick it up, the pan is too small for that cooktop.

Measure the magnetic part of the base, not the rim. Pans are sold by their top diameter, and the flat part of the base on a flared skillet can be two or three inches smaller than the number on the label. On pans with a bonded disc, the magnetic area can be smaller again. A 10-inch skillet with a 6-inch disc behaves like a 6-inch pan for detection, and the outer few inches are heated only by conduction through the aluminum.

Going too large has the opposite problem. The coil heats the part of the pan directly above it, so a 12-inch skillet on a 7-inch zone has a hot centre and a cooler outer ring. Good cladding spreads that heat sideways; thin pans do not. If you routinely cook in large pans, match them to the largest zone, or look for a hob with a bridge or flexible zone that can combine two coils under one pan.

Shape and flatness matter too. Induction can work across a small gap, so a slightly domed base still heats, but the field weakens quickly with distance, so coupling suffers, and a pan that rocks will vibrate, buzz and give the temperature sensor under the glass a poor reading. Round-bottomed woks touch the glass at a single point and heat poorly on a flat hob; use a flat-bottomed wok or a dedicated wok zone. Pans with deep logos or rings embossed in the base can also be noisier. A flat, smooth, full-width base is what the hob wants.

6. Interface Disks: The Workaround and What It Costs

An interface disk, also sold as a converter disc or induction adapter plate, is a flat plate of magnetic steel, often with an aluminum core, that sits on the induction zone. The hob heats the disk, and the disk heats your non-compatible pan by contact, just like an electric hotplate. It is the only way to use a copper saucepan, a glass percolator or a beloved aluminum pan without replacing it, and for an occasional job it is a reasonable answer.

The cost is everything that made induction worth having. Heat now has to pass from the coil into the disk, then across the contact between the disk and the pan, losing some to the air at every step. Reports from users and testers commonly put boil times at roughly double or more compared with a compatible pan, and the exact penalty varies with the disk's thickness and how flat both surfaces are. Responsiveness disappears too, because the disk has its own thermal mass to heat and cool. You are, in effect, cooking on a slow electric coil that happens to sit on an induction hob.

There is also a risk to the hob. A disk gets far hotter than a pan full of food, and it concentrates that heat on one patch of glass. Several cooktop makers advise against adapter plates, or against using them for long periods, because of the thermal stress on the ceramic glass and the electronics underneath. Some hobs will also cut power when the sensor under the glass sees that temperature, which makes the slow disk slower still. Read your manual before buying one; if it says not to, take that seriously, because damage caused against the instructions is a common exclusion in cooktop warranties.

Used sparingly, a good disk is fine: warming milk in a copper pan, making coffee in an aluminum moka pot, keeping a ceramic dish warm. As a permanent strategy it is a poor deal. If you find yourself reaching for the disk every day, the cheaper long-term fix is to replace the two or three pans you use most. A single fully clad skillet and a Lodge cast iron pan cover most daily cooking, and both are covered in our best induction cookware picks. If you are still deciding whether to go induction at all, a kitchen full of copper and aluminum is a fair point in the gas column, which we weigh in induction vs gas.

7. Buzzing, Humming and Clicking: What the Noise Means

New induction owners are often surprised that the hob makes noise, and the pan is usually the cause. A low hum or buzz at high power is the most common sound. The rapidly alternating field makes the pan vibrate very slightly, and in multi-ply cookware the bonded layers of different metals can vibrate against each other, which some manufacturers describe as a crackle. Cooktop makers including Miele, Whirlpool and Wolf describe these sounds as normal operation, not a fault.

Pan construction decides how loud it gets. Heavy cookware is quieter: Wolf notes that heavier enameled cast iron produces less noise than lighter multi-ply stainless. Thin, light pans, pans with a small pressed-in disc and pans with embossed logos or rings on the base tend to be the loudest, and a pan that does not sit flat can rattle audibly. This ties back to the magnet test: the same pans that grip a magnet weakly are often the ones that buzz, because a thin or partial magnetic layer is being driven harder to deliver the same heat.

A regular clicking at low and middle settings is a different thing. Many hobs regulate low power by switching the coil on and off in a cycle rather than delivering a continuously low output, and the switching electronics make a soft tick as they do it. It is most noticeable on a gentle simmer and usually disappears at high power. A whirring that continues after you switch off is the cooling fan protecting the electronics, and it will stop on its own once the hob has cooled.

Some practical fixes help. Centre the pan on the zone, make sure the base is clean and dry, and avoid running a light pan on boost when a middle setting would do. Do not put two pans on a bridged zone if the manual says not to. Fill the pan, because an empty pan is usually louder than a full one. If a particular pan is unbearable, that is a reasonable reason to retire it; heavy clad stainless and cast iron are the quietest options. A grinding, a burning smell or an error code is not normal, and that is a call for service, not a cookware change.