An all-purpose gas stove structure capable of increasing its air intake includes an all-purpose opening-covering case, an extended supporting frame, and at least one gas nozzle. The all-purpose opening-covering case includes an opening-covering case body for covering the heat source-receiving opening of a roasting/grilling device completely, and a gas controller with a gas operation unit for controlling the state of communication between gas input and output ends. The extended supporting frame is a box with a protective lid, is coupled to the inner side of the opening-covering case body at one end, and has a stove burner opening at the opposite end. The lateral walls of the protective lid are formed with vent holes. The gas nozzle is provided on the inner side of the stove burner opening. The all-purpose gas stove structure allows a ceramic roasting/grilling device to have a higher air intake and therefore produce higher heat.

A vessel for frying, baking or cooking foodstuffs, includes at least one visible first material and one visible second material, wherein at least the first material reversibly changes color thermochromically when heated. The coloring of the two materials is selected in order for a color difference between the two materials to change visibly when the vessel is heated.

A cooking adjustment system for a cooking appliance includes a body that defines a cooking cavity. A steam generator system is coupled to the body. The steam generator system is configured to inject steam into the cooking cavity. An air temperature sensor is disposed within the cooking cavity and configured to sense a dry bulb temperature. A food probe has multiple food temperature sensors. At least one of the food temperature sensors is configured to sense a surface temperature of a food item. A controller is communicatively coupled to the steam generator system, the air temperature sensor, and the food probe. The controller is configured to determine a wet bulb temperature utilizing the surface temperature of the food. The controller is configured to adjust relative humidity within the cooking cavity in response to at least one of the wet bulb temperature and the dry bulb temperature.

Exemplary embodiments of a kamado-style cooker configured for use with pelletized fuel are disclosed. Certain embodiments include a cooking space above a firebox space. Various novel aspects of the cooker provide for thermal energy management within the firebox space such that temperature sensitive components of a wood pellet storage, delivery and combustion subsystem (e.g., electronic controllers, motors, pellet hopper and auger) may be housed within the firebox space, I.e., housed internal to the ovoid structural envelope of the cooker.

Temperature data is wirelessly received from a food thermometer inserted into food. A remaining time for cooking the food is estimated based at least in part on the received temperature data. The progression of a recipe to at least two new stages is indicated on a user interface based on the received temperature data. According to one aspect, the food thermometer includes a thermal sensor configured to measure an internal temperature of the food or an ambient temperature adjacent the food. It is determined that the indicated temperature measured by the thermal sensor increased by at least a threshold value from a previously indicated temperature wirelessly received from the food thermometer, and the progression of the recipe is indicated on the user interface to a new cooking stage.

Embodiments of the application disclose a heating control method, device and apparatus. The device is internally provided with a first heating tube and a second heating tube, and a cooking cavity between the first heating tube and the second heating tube is configured to place to-be-heated food. When time reaches a switching time point, a magnitude relationship between heating temperatures of the first heating tube and the second heating tube is switched, so that the effect of turning the food can be achieved to enable the food to be heated uniformly, and prevent a situation in which the food is undercooked or burnt.

Mountable trays for temperature probe hubs are disclosed. An example mountable tray includes a central portion, a peripheral portion, and a mounting arm. The central portion includes at least one drainage opening extending through the central portion. The peripheral portion is coupled to and extends upwardly from the central portion. The mounting arm is coupled to and extends upwardly from the peripheral portion. The mounting arm is configured to mount the mountable tray to a flange.

A thermometer device including a shaft assembly, a heat fin assembly, and an electronic transceiver assembly is disclosed herein. The thermometer device includes a stainless-steel shaft body with a pointed distal end having temperature sensing elements housed in the body. The thermometer device further includes a T-shaped heat sink extending from the shaft portion near the proximal end. The proximal end of the body is mounted to an electronic transceiver module capable of wirelessly communicating the sensed temperature to an electronic mobile device. The electronic transceiver module includes a digital display for displaying the presently sensed temperature.

A stepless temperature control method for an air fryer includes the steps of detecting and analyzing an air temperature in an air frying chamber of the air fryer in a real-time manner to obtain a temperature change in the air frying chamber, modulating a parameter of a stepless control signal according to a preset target temperature and the temperature change, and, in response to the modulated stepless control signal, adjusting a heating power of the air heater of the air fryer in a stepless manner, so as to maintain the air temperature in the air frying chamber between an upper limit and a lower limit of the preset target temperature.

An intelligent meat thermometer with the possibility of performing temperature measurements at three or more points in the meat, where at least one is measured on the far side of the center of the meat opposite the point of insertion, so that the center is between two points of measurement after insertion, so that the center temperature can be estimated, the meat thermometer, furthermore, being designed to be cheap to manufacture, and it can include an external unit for doing calculations, possibly via wireless connection, on received measurement data, and displaying of these calculations, and setting of parameters for use with the calculations.