Systems are disclosed for cleaning a fryer using a washing element coupled to a bottom wall of a cooking chamber. An upper portion of the washing element extends above the bottom wall of the cooking chamber and includes a plurality of spray jet nozzles that are separated at predetermined angles relative to one another around a periphery of the upper portion of the washing element to orient the plurality of spray jet nozzles so as to spray a plurality of pressurized streams of the cooking medium to predetermined areas of the cooking chamber, including at least one corner of the cooking chamber. Also disclosed is a fryer that includes a spreader bar that maintains an electric heating coil in the serpentine pattern. The spreader bar is coupled to the upper surface of the electric heating coil and is disposed at a predetermined distance away from the bottom wall.

Provided is an electrical fryer including an inner pot configured to contain oil, an oil filter configured to filter oil and drain oil contained in inner pot, an electrical heater. The electrical fryer further includes: a knob mechanism comprising a knob presenting an oil filtering position and at least one heating position; an oil filtering control mechanism connected between the knob mechanism and the oil filter; a temperature control mechanism comprising a switch assembly being drivingly connected with the knob mechanism; wherein, the knob is turned so as to switch between the oil filtering position and said at least one heating position, and when the knob is turned to the oil filtering position, the knob mechanism drives the oil filtering control mechanism to open the oil filter and the knob mechanism controls the switch assembly to switch it off so that the electrical heater is not energized, and when the knob is turned to said at least one heating position, the knob mechanism controls the switch assembly to switch it on so that the electrical heater heats the inner pot.

A portable cooking oil distribution device for filling remote fryers with fresh cooking oil. In other embodiments the device can also collect used cooking oil from the fryer. In one embodiment, a portable device includes a fresh oil tank, a three-way valve connected by piping to the fresh oil tank, a pump connected by piping to the three-way valve, and a nozzle connected by piping to the pump, the nozzle having an outlet tube connected to the piping between the pump and the nozzle. The device may also include a used oil tank, a second three-way valve connected by piping to the used oil tank, a second pump connected by piping to the three-way valve, and piping connecting the second pump to the nozzle, where the nozzle includes a inlet tube connected to the piping between the pump and the nozzle.

A capacitive sensor and control system is configured to detect the presence (or absence) of a filter pan and of fluid within a filter pan. Configured in a filter pan of a deep fryer, the sensor determines when a level of liquid within the filter pan is at or above the level of the. The sensor is in communication with the control system and the sensor sends a signal to the control system representative of the presence of liquid within the filter pan and at the level of the sensor. The controller receives the signal from the sensor, and allows operation of a fluid management system and its associated plumbing to completely and safely move oil into and out of the filter pan.

A fryer apparatus and method of frying food products includes a cooking chamber, a heater disposed external to the cooking chamber, a fuel system disposed external to the cooking chamber, a blower configured to propel an airflow toward a heater, and a fuel injector configured to inject fuel into the airflow to create an air-fuel mixture. The fuel system is configured to deliver an air-fuel mixture to the heater. The heater is configured to ignite the air-fuel mixture to provide an external heating source for the cooking medium within cooking chamber. The temperature of the cooking medium is controlled by varying the speed of the airflow.

A deep fryer system includes a deep fryer that includes a fuel tank, a burner and a hose that is fluidly coupled between the fuel tank and the burner. The burner produces a flame thereby facilitating the burner to heat a container filled with a fluid. A cart is provided and each of the fuel tank, the hose and the burner is removably positioned on the cart. A box is provided and the box is positioned on the cart. The burner is positioned within the box and the container is positioned within the box. The box inhibits the fluid in the container from escaping the box thereby reducing a fire hazard with respect to the fluid when the fluid is heated.

Systems, methods, and computer program products are disclosed for controlling a fryer. In response to determining a filtration cycle is scheduled to occur after a current cooking cycle, a temperature set-point for a cooking medium is increased to pre-heat the cooking medium prior to the end of the cooking cycle. A heating element used to heat the cooking medium may be deactivated prior to entering the filtration cycle, and reactivated during the filtration cycle in response to the filtered cooking medium in the fry pot reaching a predetermined level. Activating the heating element during the filtration cycle may further heat the cooking medium prior to starting the next cooking cycle, thereby reducing the total time needed for filtration and reheating for a subsequent cooking cycle.

A gas fryer and associated methods of cooking food products are disclosed. The gas fryer includes an infrared burner and a fry pot including an interior casing defining a cooking chamber, with the interior casing including a bottom wall and opposing sidewalls that extend upwardly from the bottom wall. The opposing sidewalls include lower, central, and upper sidewall panels that are angled from one another to define a tapered profile that narrows towards the bottom wall. The tapering of a well defined at a lower chamber portions of the cooking chamber allows for a shallow depth at this portion of the fry pot and easy visibility and access for cleaning. Furthermore, the opposing sidewalls and a rear end wall of the interior casing include heat exchange fins on an external surface.

A commercial deep fryer filter utilizes a tubular suction pump having a plurality of apertures which are in fluid communication with the oil reservoir and an air pump. At the distal end opposite the portion plurality of apertures is an opening which permits fluid communication between the suction pump and oil filter. The oil filter is in fluid communication with the oil contained in the commercial deep fryer.

The present invention provides a deep fryer that has both oil (101) and water (102) layer in contact with each other to enable fried impurities to sink to the water (102) layer. The fried impurities are filtered out using a mesh filter (131) and the water is pumped back into the water layer (102) after filtration. The temperature is fixed at a default setting, 180 C. The thermocouple will be automatically cut off when there is a drastic increase in the temperature of (oil 101) and water (102) layer. Alarm systems notify the user when the deep fryer is not working correctly. The whole fryer shuts down if there is a fault in the (pump 132) or temperature.