An induction cooker includes a microcrystal panel and at least three temperature sensors scattered on a bottom surface of the microcrystal panel, and the induction cooker is configured to heat a container to be measured. The method includes: obtaining temperature data collected by the at least three temperature sensors and position data of each temperature sensor relative to the microcrystal panel; obtaining an actual position of the container on the microcrystal panel according to the temperature data and the position data; obtaining a preset temperature curve matching the induction cooker according to the temperature data, and extracting a peak value of the preset temperature curve; and calculating an actual temperature of the container to be measured according to the actual position and the peak value.

Slow cookers are described that have multiple cooking modes that are based on user selected choices, including the cooking mode and the desired doneness or temperature of the food product to be cooked. Preferably, plural cooking modes are provided to be selected that include the use of a temperature probe to provided temperature feedback information. A control module can be mounted to the slow cooking and programmed to control the multiple cooking modes and the temperature probe can be operatively connected to the control module to provide sensed temperature data for use in the various cooking modes. Preferably, the cooking modes using the temperature probe include the heating of a cooking vessel within the slow cooker for heating the food product or a liquid within the cooking vessel to a desired temperature and to permit the user greater flexibility in cooking options and to vary option at time during the cooking processes. Moreover, the cooking modes preferably also provide functionality to control the cooking processes after a selected temperature is attained.

A cooking device comprising: one or more heating elements for heating a fluid; and a control system configured to: control the one or more heating elements for a first period of time in order to heat the fluid to a first temperature; control the one or more heating elements for a second period of time such that the temperature of the fluid falls to a second temperature; and control the one or more heating elements for a third period of time to increase power supplied to the one or more heating elements relative to power supplied to the one or more heating elements during the second period of time.

A combined apparatus for heating, cooking, grilling and defrosting of foods of various kinds, depending on the type of foods to be treated from time to time and the duration of the foods treatment foreseen by each user of the same apparatus, where each hot treatment of foods may be effected either by heating or by microwaves only, or by heating and microwaves combined to each other. There are described in detail all the technical characteristics of the apparatus and the relative control circuits either for heating or for generating the microwaves. Advantages include use of a sole and single apparatus for hot treating the foods for providing for the heating, the cooking, the grilling and the defrosting of the same foods, instead of employing as it happens hitherto of single separated apparatuses for performing the same functions.

Systems and methods are provided for a portable power system. A portable power system can include a housing having a plurality of receptacles adapted to receive one or more batteries. The housing can further include control circuitry that is configured to utilize the batteries in order to provide output power to one or more detachable external devices. Examples of such external devices include fry pans, sauce pans, griddles, blenders, lights, or power inverters.

A toaster according to the disclosure includes a light receiving unit configured to receive reflected light from bread being cooked and a surface condition determination unit configured to determine a surface condition of the bread being cooked on the basis of intensity of the reflected light received by the light receiving unit.

A heating power control system includes a storage that stores cooking information including a cooking process that is executed using a cooking appliance and is obtained from a server device, a receiver that receives detection information indicating an absence or a presence of a user of the cooking appliance, and a controller that determines whether or not the user is absent for a predetermined period of time based on the detection information, determines, based on the cooking information, whether or not the cooking process is a heating process when the user is determined to be absent for the predetermined period of time, determines, based on the cooking information, a control method of controlling heating power of the cooking appliance when the cooking process is determined to be a heating process, and controls the heating power of the cooking appliance by the control method.

The invention relates to a cooking appliance using a heat element (2) and a cooling system, which change the temperature of a case (3) inside an outer insulated housing (1). A cooking capsule (4) comprising the food is inserted into the case. The device operation is controlled by a control system (35). Different types of heat elements (2) can be used and corresponding cases (3) are provided respectively. Each cooking capsule (4) has a food holding surface (29), a distillate case (24) and a press (25) for inserting and extracting the food.

A kitchen device comprising a cooking vessel, a heating plate, a first temperature sensor and a second temperature sensor, wherein the first temperature sensor is thermally connected to, at least part of, the heating plate of the kitchen device for measuring the temperature of the heating plate, and the second temperature sensor is located in a position to measure the temperature of one or more ingredients that are inside the cooking vessel and the second temperature sensor is thermally isolated from the cooking vessel by a sensor isolation seal.

A device for controlling the temperature of and thawing a temperature-controlled product, with a housing containing the temperature-controlled product, a heating module for introducing heat at least at one side of the temperature-controlled product and an actuating member, using which movement can be introduced into the temperature-controlled product. The actuating member is designed as a mechanical actuating element which extends along and ideally makes direct contact with the temperature-controlled product, and which can be controlled such that it executes a periodic and/or non-periodic movement.