The Induction Circuit Nobody Mentions

Why cooking fuel is a wiring question before it is a shopping question

A gas or propane range’s electrical demand, where it has any at all, is a 120-volt load for an electronic igniter, a clock or a control board — the kind of draw a standard wall receptacle or a hard-wired 120-volt connection already handles. Nothing about installing or owning one gives an electrician a reason to also run a 240-volt circuit to that wall.

An electric range — whether induction or electric-resistance — is a different electrical animal. Under NEC Table 220.55, a single household range is assigned a demand load for circuit-sizing purposes (8 kW for a range rated up to 12 kW, the figure this site’s electrical load calculator already publishes), and 210.19(A)(3) ties the branch-circuit conductor’s minimum rating to that demand rather than to the appliance’s full nameplate rating. HyreElectrical calculation. At 240 volts, an 8 kW demand load draws 33.3 amps — above the 30-amp standard breaker size and below the 40-amp one — which is why a household range circuit is built at 40 amps at minimum, and commonly at 50 amps once a range’s nameplate rating runs above 12 kW, which many modern ranges with double ovens or higher-wattage elements do. Confirming which of the two a specific installation needs is a calculation a licensed electrician runs from the actual nameplate — this page states the code structure that produces the two numbers, not a substitute for that calculation.

The assumption behind treating induction and resistance ranges alike, stated plainly. NEC Table 220.55 and 210.19(A)(3) size a household range by its nameplate kilowatt rating; neither article distinguishes the technology that produces the heat. An induction range that draws 8–11 kW at full nameplate is sized exactly as a resistance range at the same rating would be. That is a reasonable reading of how the code is structured, not a measurement of every induction model on the market — RECS gives us no way to check it against actual induction nameplates, because RECS does not know which of its “Electricity” homes have an induction range at all.

The tenure split — and where it runs the opposite way from this site’s panel study

Nationally, 63.4% of renter-occupied homes cook on electricity against 48.0% of owner-occupied homes — renters are markedly more likely to already have the 240-volt circuit an induction range needs, not less. That is the opposite direction from this site’s earlier renter-electrification-gap study, which found renters modestly over-represented in the hazard-era housing stock a panel upgrade would target. HyreElectrical analysis. The two findings are not in tension — they describe different equipment. A renter is more likely to already have the circuit an induction range needs and, separately, more likely to live in a home whose panel dates from the hazard era the earlier study measured. Both can be true at once, and this page reuses that study’s tenure framing rather than re-deriving it — see its methodology for the split-incentive argument, which applies here as much as it does to a panel.

RECS lets the tenure gap be checked against a mechanism, not just observed: Table HC3.2 splits owner and renter status separately for single-family/mobile homes and for apartments. In both housing types, renter-occupied units run a higher electric-range share than owner-occupied units of the same type — 56.7% versus 48.1% for single-family and mobile homes, and 66.4% versus 46.1% for apartments. HyreElectrical analysis. Part of the national renter/owner gap is simple composition: renters concentrate more in apartments, and apartments of every tenure run more electric than single-family homes (67.5% electric in buildings of five or more units against 48.3% in detached single-family homes, per Table HC3.1) — likely because multi-unit buildings are less often built with individual gas service. But the gap persists within each housing type too, and this page has not decomposed how much of the national figure owes to composition versus a within-type difference. Both effects point the same direction, which is the finding worth carrying, not a single decomposed percentage.

Method

Sources. US Energy Information Administration, 2020 Residential Energy Consumption Survey: Table HC3.1 (appliances by housing unit type, for the national total), Table HC3.2 (appliances by owner/renter status, cross-tabbed with housing unit type), Table HC3.3 (appliances by year of construction) and Tables HC3.7 and HC3.8 (appliances by Census division). All five downloaded directly from eia.gov/consumption/residential/data/2020/hc/pdf/ on 6 September 2026.

Derivation. “Base scope” sums the published Natural gas and Propane rows for each geography and cross-tab. “Narrow” is the Natural gas row alone. “Broad” adds the Dual-fuel row, flagged as a likely overstatement in the text above. Division, tenure and era percentages divide each row’s relevant sum by that row’s total housing-unit count, both taken directly from the same EIA tables. The branch-circuit arithmetic (Table 220.55 Column C demand of 8 kW for a range at or below 12 kW nameplate, divided by 240 volts) reproduces the figure already published on this site’s electrical load calculator; it is not independently re-derived here.

What is not a measurement. The claim that induction and electric-resistance ranges carry the same branch-circuit requirement follows from how NEC Table 220.55 and 210.19(A)(3) are structured — by nameplate rating, not by heating technology — and is stated as HyreElectrical’s reading of that structure, not as a survey of induction range nameplates, which does not exist publicly at a national level.

Reproducibility. Every EIA figure on this page is read directly off a public table with no interpretation applied before the sums shown here. Anyone with the same five files can rebuild every row.