An apparatus for preparing food is provided, and includes a food-receiving chamber sized to receive at least one food item, a cutting structure configured to cut the at least one food item when pressed into contact therewith, an impeller for impelling the at least one food item into contact with the cutting structure, an oil chamber for storing oil, a heating system for heating the oil, and an oil introduction system in communication with the oil chamber, the oil introduction system being operable to introduce at least one of an oil mist and an oil spray in the frying chamber.

A smoke evacuating fryer, comprising a fryer body, an exhaust vent, a lid engaged on the fryer body, and a frying basket and a smoke evacuating and filtering apparatus provided within the fryer body An air intake gap is provided at a location where the lid and the fryer body are joined. The smoke evacuating and filtering apparatus is provided on the fryer body (1) and abuts against the frying basket. Air introduced into the air intake gap is passed over the frying basket, filtered by the smoke evacuating and filtering apparatus and then discharged via the exhaust vent.

A batch fryer for kettle manufacturing of deep fried food stuff comprising: an elongated cooking trough for holding a volume of cooking oil; an infeed provided at an infeed end of the elongated cooking trough for receiving food stuff; an oil circulation system comprising an oil inlet circuit and an oil outlet circuit connected to the trough for recirculation of the cooking oil in the trough; a circulation pump configured to pump oil through the oil circulation system; a heat exchanger connected to the circulation system configured to heat the cooking oil flowing through the heat exchanger from the oil outlet circuit to provide heated cooking oil to the trough via the oil inlet circuit; a booster oil inlet circuit connected to a booster pump configured to pump heated cooking oil into the trough through a booster oil inlet arranged in a wall at the proximal end of the trough at the beginning of a batch deep-frying process of food stuff.

The present disclosure relates to a method for producing a deep-fried food. More specifically, the present disclosure relates to a method for producing a deep-fried food, comprising: a first step of deep-frying a food material to obtain a first deep-fried material, and tempering the first deep-fried material in a state of being taken out from an oil; a second step of deep-frying the first deep-fried material to obtain a second deep-fried material, and tempering the second deep-fried material in a state of being taken out from an oil; and a third step of deep-frying the second deep-fried material to obtain a deep-fried food from an oil, wherein a mass proportion of the deep-fried food to the food material is 85% or more.

A system for automating the removal of cooking racks or trays laden with food items. The automatic rack lifting system includes a fryer assembly having a frypot and a liftable traveler assembly with a removable rack carrier or cooking carriage that carries a plurality of removable cooking baskets for food into and out of the cooking medium or oil disposed within the frypot. The system may further include lift arms removably secured to an actuation support structure. The automatic rack lifting system comprises a lift system for automated (e.g. under software program control) or manually controlled automatic lifting of a cooking carriage.

An apparatus for preparing food is provided, and includes a food-receiving chamber sized to receive at least one food item, a cutting structure configured to cut the at least one food item when pressed into contact therewith, an impeller for impelling the at least one food item into contact with the cutting structure, an oil chamber for storing oil, a heating system for heating the oil, and an oil introduction system in communication with the oil chamber, the oil introduction system being operable to introduce at least one of an oil mist and an oil spray in the frying chamber.

A cooking vessel for a cooking system is provided that includes a table including a longitudinal axis, a first end, a second end opposite the first end, a trough positioned along the table that is more proximate the second end than the first end. The cooking system further includes an inlet header positioned at the first end that is configured to emit cooking fluid onto the table such that the cooking fluid is to flow across the table toward the trough, and a plurality of oil nozzles positioned along a base of the table, wherein each of the plurality of nozzles is configured to emit oil along an upper surface of the base toward the trough.

A ceramic deep-frying device capable of withstanding high temperatures and releasing far-infrared energy is made by grinding and mixing mullite, spodumene, energy ceramic material, ball clay, and kaolin clay into clay blank; molding the blank into ceramic green body; and sintering the green body at 1250-1320° C. for 18-24 hours. The device is completely immersed in the oil in a deep-frying vessel while leaving a gap between the device and heating pipe in the vessel or the inner bottom wall of the vessel, for enabling the oil to circulate through the through holes in the device due to temperature difference in the oil, causing the energy ceramic material to release anions and far-infrared rays that decrease van der Waals forces between oil molecules, and hence split, the oil molecules, thereby extending the service life of the oil, shortening the deep-frying time required, and lowering the oil content of deep-fried food.

An improved baffle assembly for heat exchanger tubes comprising a shaft and at least one opposing pair of expanding baffles positioned coaxially on the shaft, each expanding baffle comprising a central hub portion and a plurality of extension portions each radiating outward from the hub portion at complementary oblique angles so that the central hub portions of each baffle are spaced apart along the shaft and the distal ends of the extension portions of each baffle are brought into physical contact.

An automatic fryer apparatus and method of frying food products includes a cooking chamber, a heating mechanism disposed in the cooking chamber, and a pump disposed at an end of the cooking chamber to circulate cooking medium within the cooking chamber. Food product is added to the cooking chamber and flows along with the cooking medium in a flow direction. A controller controls a plurality of gates by individually actuating each gate. The controller stores data regarding predetermined time periods, which regulate when to raise and lower each gate. Food product moves downstream of each gate along a flow direction when each respective gate is raised. Food product is automatically transferred to a holding station when it reaches an outlet end of the cooking chamber.