In a method for treating food to be cooked in a household cooking appliance, a sensor measures a local distribution of a surface condition of the food to be cooked. A measure of deviation is calculated from the measured local distribution and multiple local power distributions that are known in advance in the region of the food to be cooked in correspondence with different sets of setting values of a unit for treating the food to be cooked. A unit for treating the food to be cooked is operated by using the set of setting values of the one of the power distributions for which the measure of deviation fulfills a predetermined criterion.

An improved tortilla toaster that batch heats on two sides simultaneously up to six tortillas where each tortilla is held an optimal distance away from heating source and the oven is unloaded by barrel-rolling the oven assembly so as to avail of gravity and tortilla shape to unload the oven.

Provided is a cooking apparatus, preferably including a plurality of heating plates for contact cooking. The cooking time is determined by selecting a desired degree of cooking of the food. After estimating the surface area occupied by the food on one of the heating plates, said cooking time is calculated on the basis of the desired degree of cooking, the thickness of the food, and the surface area occupied by the food.

Provided is a method of cooking for a food-cooking appliance having a reception means designed to receive the food products, a motion-inducing means positioned inside the reception means, and at least one main heating means. The method includes: a first cooking step during which the relative rotation of the reception means and of the motion-inducing means is neutralized and at least one main heating means is operated in order to regulate the temperature to a first set-point value; and a second cooking step during which the relative rotation of the reception means and of the motion-inducing means is active and at least one main heating means is operated in order to regulate the temperature to a second set-point value higher than the first.

A vegetable- and/or fruit-containing snack food, the snack food comprising a sheet having a thickness of from 1 to 8 mm, the sheet comprising a rigid starch matrix comprising potato starch and a plurality of individual pieces of vegetable and/or fruit randomly distributed throughout the matrix, wherein at least 50% by number of the pieces have a minimum dimension of at least 0.75 mm and a maximum dimension of up to 7 mm, wherein the matrix defines therein a first cellular structure of first cellular pores having a first pore size distribution and the pieces define therein a second cellular structure of second cellular pores having a second pore size distribution, at least some of the second cellular pores are defined by polysaccharide cell walls of the respective vegetable and/or fruit, and the first pore size distribution has a larger number-average pore size and a wider distribution than the second pore size distribution. A method of manufacture is also disclosed.

A method for preparing a substantially pasteurized and/or sterilized food product; the method, which can be used to produce pasta sauces or soups, comprises: a cooking step, during which a base of the food product is obtained by thermally treating a first component at a temperature exceeding 30° C.; a mixing step, during which said base and a second, substantially solid component are mixed together so as to obtain a mixture; and an ohmic treatment step, during which said mixture is subjected to an ohmic treatment so as to obtain the substantially pasteurized and/or sterilized food product.

An electronic device and a system are to be provided in order to allow, at any time, monitoring of a cooking state (as a system state) of a product cooked preferably in a liquid. This is achieved by means of a hermetically sealed body with an electronic arrangement accommodated in the body. The arrangement comprises an electronic assembly (10) with a model-forming arithmetic unit (11) and a temperature sensor (20) adapted and arranged to measure an ambient temperature of the body. In addition, an electric power source (30) and a radio interface (50) with an antenna (52) are provided, the model-forming arithmetic unit simulating a model of a cooking behavior of a foodstuff to be cooked. Information on the current cooking state of the foodstuff is transmitted from the transmission unit (52) to a receiver (a smart device) spaced apart from the hermetically sealed body.

A cocoa alternative or enhancer, made from roasted green banana flour and/or plantain flour, for use in a wide variety of food products. The cocoa alternative/enhancer can provide a variety of sensory attributes including aromas, flavors and textures that can be altered and controlled by manipulation of the roasting process.

A cooking appliance generates a recipe based on detected weights of multiple ingredients and receives a parameter for cooking the food. In another aspect, the cooking appliance can receive a recipe defining a process for cooking food and an amount of at least a first ingredient in the recipe for the food. Based on the recipe and the amount of the first ingredient added to the container, the cooking appliance generates a wirelessly output instruction for cooking the food. In another aspect, a processor of the cooking appliance detects a physical state of the cooking appliance responsive to an electrical signal and applies a setting to the cooking appliance to cook the food. The cooking appliance can include an LED gauge including multiple LEDs. The processor can selectively turn on one or more of the LEDs based on the set parameter value of the cooking appliance.

A cooking method is used to prepare a food in the cooking chamber of a cooking device. The cooking chamber includes a first opening, a second opening and a closure for closing the second opening. Furthermore, the cooking device includes a temperature sensor arranged outside the cooking chamber for detecting gas volumes escaping from the cooking chamber through the first opening. During the cooking process, the closure is moved from a first position to a second position. After leaving the first position, a measurement is performed by means of the temperature sensor.