A connected oven, including a set of in-cavity sensors and a processor configured to automatically identify foodstuff within the cooking cavity, based on the sensor measurements; and automatically operate the heating element based on the foodstuff identity.

A cooking appliance is adapted to perform either as a single large fan-forced convection oven capable of cooking a larger food, or as smaller independently-operable fan-forced convection ovens each capable of cooking smaller foods. Features of the cooking element arrangement provide faster, more efficient, and higher quality results regardless of the size and amount of food being cooked.

A cooking appliance includes a heating surface and an interface console elevated above the heating surface. The interface console includes a viewing window forming an outer surface and an inner surface, opposite the outer surface, and a display device configured to transmit light through the viewing window. The display device is aligned with the viewing window in a spaced-apart configuration forming an insulating passage between the display device and the interior surface. An air intake is in connection with the insulating passage. The insulating passage provides an air flow path extending from a ventilation passage of the cooking appliance, and the ventilation passage extends away from the heating surface and communicates environmental air to the insulating passage.

Disclosed are systems and methods that optimize electrical component compartment cooling in a cooking device, such as a combi-steamer. The systems and methods according to the present disclosure provide supplemental air movement devices, such as fans, in the electrical component compartment and, optionally, in the mechanical compartment. These supplemental air movement devices allow reducing the energy consumption of cooking ovens such as combi-steamers by reducing the effort required by a main cooling fan to cool the electrical compartment. Reducing the effort required by the main cooling fan to cool the electrical compartment also reduces or avoids the cooling effect that over-use of the main cooling fan has on the cooking chamber. Also, temperature fluctuations in the electrical compartment are reduced which can also prolong the effective life of the electrical components, again reducing operating and repair costs for the cooking device.

Disclosed are systems and methods that optimize electrical component compartment cooling in a cooking device, such as a combi-steamer. The systems and methods according to the present disclosure provide supplemental air movement devices, such as fans, in the electrical component compartment and, optionally, in the mechanical compartment. These supplemental air movement devices allow reducing the energy consumption of cooking ovens such as combi-steamers by reducing the effort required by a main cooling fan to cool the electrical compartment. Reducing the effort required by the main cooling fan to cool the electrical compartment also reduces or avoids the cooling effect that over-use of the main cooling fan has on the cooking chamber. Also, temperature fluctuations in the electrical compartment are reduced which can also prolong the effective life of the electrical components, again reducing operating and repair costs for the cooking device.

An electronic apparatus according to the disclosure includes a display; a manipulation interface; a memory configured to store a menu selection history including a first menu category of a first depth and a second menu category of a second depth subordinate to the first menu; and a processor configured to identify whether guide information is to be provided based on a user input selecting a first menu item received through the manipulation interface, and based on identifying the guide information is to be provided, control the display to display the guide information including a recommended menu item based on at least one of the first menu item, context information, or the menu selection history stored in the memory.

An oven cooling system may include a body having an oven cavity. The system may include a heating element may be operably configured to heat the oven cavity. A door may be coupled to the body and operably configured to open and close. The system may also includes an energy bank. Cooling elements may be located in the oven and coupled to the energy bank. The energy bank may be configured to remove heat from the oven cavity to cool the oven.

An electrical cooking appliance with automatic cleaning of a cooking chamber is provided. The appliance may include a steam supply device configured to generate steam and supply the steam to the cooking chamber; a water supply pump that supplies water from a water tank to the steam supply device; a water discharge pump that collects condensed water from the steam supply device into the water tank; and a controller configured to activate the water supply pump to supply water to the cooking chamber to clean the cooking chamber; and activate the steam supply device to supply steam to the cooking chamber to clean the cooking chamber.

A household appliance apparatus includes a hyperspectral image capture unit configured to capture in an operating state a state of an object in an image capture region, and a control unit configured to ascertain an item of information in the operating state based on the state of the one object.

A kitchen appliance is described. The kitchen appliance has a food preparation chamber including a fan, a heating element, and a humidifier; and a controller for implementing a program for roasting meat. The program includes a steaming stage to steam the meat during which the controller, for a first period of time, controls the humidifier, the fan, and the heating element to generate a first wind speed within the food preparation chamber and keep a temperature within the food preparation chamber between 60-70° C.; a drying stage to dry the steamed meat after said steaming stage during which the controller controls the fan and the heating element for a second period of time to increase a wind speed and reduce a humidity; and a roasting stage to roast the dried meat during which the controller controls the heating element for a third period of time to keep the temperature between 140-160° C.