Pot temp
72°F
You can flash fry a Buffalo.
The Buffalo-Eater Flash-Fry Series — commercial fryers from 400 kW to 1.4 MW.
Or any comparable beast, bird or bovine, faster than ever.
The BE series, 400 kW to 1.4 MW
Most fryers rate their burners. We rate what comes out of the pot.
Drop 200 lb of frozen bone-in wings into a BE-100 and the pot gives up 11 °F. Eight seconds later it is back on setpoint. That is the entire product.
In production the machine draws 198 kW, about a fifth of what it is rated for. The other 800 kW exists for those eight seconds, which is a strange thing to build a company around, and we have been doing it since 1974.
Recovery, 200 lb drop
8sec
Output, bone-in
1,370lb / hr
Status
Heating
The whole argument is recovery.
Two hundred pounds of frozen wings hitting 400 °F oil is the moment a fry station is won or lost. Below: a BE-100 against the gas equivalent, which is twelve 75 lb fryers burning 1.8 million BTU an hour between them. Same charge, same oil, probe at mid-pot.
Buffalo-Eater BE-100
Twelve 75 lb gas fryers, 1.8 M BTU/hr
Crisp window, 385–405 °F
Probe at mid-pot, 200 lb frozen bone-in charge, 72-hour oil
11 °F maximum dip
A 200 lb frozen charge carries 84,000 BTU of thaw, cook and vaporization load. Against 1,000 lb of oil and a megawatt behind it, that is an 11 °F event.
Back on setpoint in 8 seconds
Re-heating 1,000 lb of oil by 11 °F takes 5,500 BTU. After feeding the charge, the elements have 693 BTU per second spare. The arithmetic is not close.
30× faster than the bank it replaces
The gas bank needs close to four minutes and spends most of that below 375 °F, which is where crust stops setting and starts absorbing oil.
Four models. One pot design.
Every Buffalo-Eater shares the same element geometry, the same controller and the same 1/4-inch 304 stainless pot wall. You are choosing capacity, not a different machine.
Solid bar: what a crew can actually turn, limited by basket area on an 8 min 45 s cycle. Ghost bar: what the elements could cook at rated power, in lb/hr. Nobody has ever reached the ghost bar.
Turbo-Boost elements
Two heat sources in one sheath. Resistive coils hold setpoint at 12 kW; the infrared stage fires only on the drop, dumps full rated power for as long as the dip lasts, and stands down. A megawatt of it, held at the same 35 W/in² of sheath as the fryer in your house.
- 760 ftElement in a BE-100A megawatt at a safe 35 W/in² needs 28,600 square inches of sheath. That is 760 feet of one-inch tube, folded into a pot 36 by 60 inches. Oil above that watt density polymerizes on contact, so the only way up is more element.
- 400 msElement responseThe probe sits on the sheath, not on a wall, so full power lands while the basket is still going down.
- 3 min 15 sAmbient pot to 400 °FIdentical on every model, because power and oil volume scale together across the line.
- 12 kWIdle drawHolding 1,000 lb of oil at setpoint costs about what a domestic oven does, since nothing is being cooked.
- 22,000 hrElement service lifeContinuous duty. Field-replaceable in under 40 minutes, one tech, pot hot.
- $0.022Energy per pound of wings0.145 kWh at 15 cents. Frying is cheap. It is the eight seconds of recovery that need the substation.
Where the megawatt actually goes
BE-100, drawn to rated output. The third bar lasts eight seconds at a time and is the only reason the first two are worth anything.
So can it actually fry a buffalo?
The energy in a 1,100 lb bison is 135 kWh. A BE-140 delivers that in 5 minutes 48 seconds, so on the only question we are qualified to answer, yes, comfortably. The buffalo is the problem.
Bone-in wings1 in to the bone
8 min
Whole turkey20 lb, 4 in to the center
1 h 10
Whole hog90 lb dressed, 7 in to the center
3 h 34
American bison1,100 lb dressed, 16 in to the center
18 h 40
Times scale with the square of the distance heat has to travel inward, which is why a bison takes 140 times as long as a wing while needing only 44 times the energy. Our elements are not the constraint here and neither is our controller. Sixteen inches of bison is the constraint. Log scale. Legal would like it noted that we have never fried a buffalo, that the figure above is calculated rather than observed, and that Thunder Fry Systems does not supply the buffalo.
Corporate signed off because the old bank couldn't hold 375 through a Friday. We use about a fifth of this thing. The utility had to set a transformer in the parking lot.
Ryan Delgado — Kitchen Manager, City Wings Store 118
Buffalo-Eater BE-100, installed March 2026. Peak service runs near 260 lb/hr against a rated 1,370.
The 1,500 kVA pad-mount went in the week before.
Trade sheet as it ran in Foodservice Equipment Monthly, March 2026.
Built to be abused.
Buffalo-Duty construction is the same across the series. The hard part of owning one is rarely the fryer, so the figures your contractor will ask for are below.
Pot and cabinet
1/4 in 304 stainless pot, 14-gauge cabinet, seamless pressed radius, no cold-zone weld to crack out at. Pot occupies about a third of the footprint; the rest is filtration bay, contactor cabinet and element bus.
Electrical service
600 A to 2,500 A at 480 V, three phase, sized at 125% for continuous load. Every model needs its own pad-mount transformer, 500 to 2,000 kVA. Utilities typically want twelve weeks.
Structural
100 to 128 lb/ft² in service. Most kitchen slabs are rated for 100, so expect a structural review before the order goes in, and a crane or a removed wall on delivery.
Filtration
Integrated pump and filter, 65 to 220 gpm by model. Full-pot turnover in 50 seconds, done between charges without pulling the pot.
Controls
Flash-Control board, ±1 °F, 20 programmable products, melt cycle, boil-out lockout and USB service log.
Compliance
Built to NSF/ANSI 4 sanitation and UL 197 and CSA electrical requirements. Type I hood, 1,700 to 5,900 CFM, with make-up air at 80% of exhaust. Three-year parts, one-year on-site labor.