Push-Ups Calorie Calculator

Push-up calories are the energy your body uses while you do push-ups, measured in kilocalories (kcal). Nobody can read this off a dial, so calculators estimate it. This one starts from a standard activity value, then adjusts it for your body weight, how long you exercise, and the style of push-up.

What Push-Up Calories Measure

The result is an estimate of the energy used during the exercise. It includes the small amount you would burn anyway while resting. It does not measure muscle gained, fat lost or calories burned after the workout ends.

The Formula

The method uses a MET value. A MET is a multiple of resting energy use. The 2024 Adult Compendium of Physical Activities lists body weight exercises that include push-ups at 3.0 METs (general) and 6.5 METs (high intensity)¹ ². There is no push-up-only value.

Calories = MET x body weight (kg) x time (hours)

Calories per push-up = Calories / number of push-ups

How This Calculator Computes Your Result

Enter your body weight (kg or lb), your push-up style, and your number of push-ups, your time, or both. If you enter only reps, the tool uses your pace (default 20 per minute) to find the time. If you enter only minutes, it uses your pace to find the reps.

Pick "Continuous sets" to use 6.5 METs. Pick "Sets with rest breaks" to use 3.0 METs and enter the full time, rests included. Incline and knee push-ups lower the above-resting part of the MET, as explained below. Totals show to one decimal under 100 kcal, and the per-push-up figure shows to two decimals.

What Your Result Means

You get three numbers: total calories, calories per push-up, and the part of the total above resting. Here are typical per-push-up figures for continuous sets at 20 reps per minute.

Heavier people burn more per push-up because they move more weight. Faster reps cost less each, since the same push-up takes less time. Treat the per-push-up number as a rough guide, not a measurement.

Why Style Changes the Cost

In a lab study, the peak force through the hands was about 64% of body mass for a standard push-up, 55% with hands on a 30.5 cm (12 in) box, and 49% from the knees³. Another study found men supported about 98% of body weight and women about 80% in standard push-ups, so the exact percentages vary by person and tempo⁴. The gap between styles is steadier than the raw numbers. This tool divides each style's load by the standard load (0.86 for incline, 0.77 for knee) and applies that to the part of the MET above resting. The Compendium does not list incline or knee push-ups, so this step is a modelling choice.

Mechanical Work vs Metabolic Cost

You can think about push-up energy two ways. Mechanical work is force times the distance your body moves. Metabolic cost is the energy your body spends to make that happen, and it is always larger. Muscles turn only part of their fuel into movement. The rest becomes heat. Holding a firm plank position and lowering slowly also cost energy while adding little visible work.

That is why this tool uses a metabolic value (the MET) instead of calculating work. It also shows why per-push-up figures are rough. In one lab test, 15 young men averaging 66 kg used 0.77 kcal per push-up above resting at a slow 6 second tempo⁵. This tool gives about 0.61 kcal for the same weight at 10 reps per minute, so it can run low for slow, strict reps.

How Many Push-Ups Does It Take to Burn Calories?

Divide the calories you want to burn by your calories per push-up. This table uses standard push-ups in continuous sets at 20 reps per minute.

Incline push-ups need about 13% more reps for the same calories, and knee push-ups about 24% more. These totals are for one long run. Most people spread them over sets with rests, which this tool covers with the rest-break option.