The present invention provides a temperature control system of a grill including a heat source 100 supplying heat to cook a cooking object, a grill 110 cooking the cooking object 120 based on the heat supplied from the heat source 100, a temperature sensor 220 measuring the temperature of the grill 110, a smart controller 200 receiving a value measured in the temperature sensor 220 to check an appropriate temperature according to a cooking object and control the intensity of the heat source, and a controller 500 connected with the smart controller 200 wirelessly to transmit and receive information and controlling the smart controller to control the intensity of the heat source 100, wherein the smart controller 200 transmits a signal according to an appropriate temperature matching result and a cooking step to a user group 310 and the controller 500, an indicator 210 of the smart controller 200 indicates the appropriate temperature matching result and the cooking step, a control window of the controller 500 indicates the appropriate temperature matching result and the cooking step, the user group 310 is configured by a plurality of users equipped with a signal receiver 320, the smart controller 200, the user group 310, and the controller 500 are connected to each other wirelessly through a communicator 300, and when the temperature of the grill 110 is not the appropriate temperature according to the cooking object, the smart controller 200 generates a signal to the user group 310 and the controller 500 so that the user directly controls the grill temperature or the controller 500 automatically controls the intensity of the heat source to be cooked at an appropriate temperature according to the cooking object.

The method and system disclosed herein presents a food preparation system that provides a user-friendly data collection and data annotation process that leverages crowd-sourced data to reduce the prohibitive costs associated with developing an extensive training set using dedicated cooking experiments and specialized manual annotation efforts. The food preparation system and corresponding method collect one or more data types (e.g., structured data such as temperature and weight data, and unstructured data such as images and thermal maps) and allow the collected data to be annotated by human users in order to provide information regarding the process of cooking, as well as food item identity, location, and/or outline information. A combination of image processing and user input is utilized in order to create models with food recognition and determining cooking progress.

A waffle maker having a base and a waffle mold supported by the base. The waffle mold has a first heating plate and a second heating plate, wherein the second heating plate is movable with respect to the first heating plate. A first heating element is arranged on the waffle mold for heating the first and second heating plates. The waffle maker further includes a sensor configured to detect motion in a detection area. A control unit of the waffle maker is in communication with the sensor and the first heating element, such that when the presence of a human is detected in the detection area, the control unit heats the first heating element to a predetermined pre-heat temperature.

The system is preferably used with a cooking appliance with a heating cavity and can include: a vessel and a temperature probe. The system can optionally include: a lid, a tray, and/or a circulator. However, the system can include any other suitable components. The system functions to monitor and/or control the temperature of a volume of working fluid in a cooking appliance with a heated cavity.

An example portable heating device includes a container, one or more heating elements, an electronic device, one or more temperature sensors, a controller, a power supply, and a power supply controller. The one or more heating elements are in thermal contact with the container. The electronic device is configured to receive a user input selecting a target temperature to heat a substance in the container to and to display the target temperature. The controller is configured to cause the one or more heating elements to heat the substance to the target temperature in response to determining the current temperature of the substance measured by the one or more temperature sensors is less than the target temperature. The power supply is configured to provide power to the one or more heating elements, the electronic device, the one or more temperature sensors, and the controller.

A coffee machine is provided. The coffee machine may include an electronic control module configured to receive at least one flow set point and at least one temperature set point. The coffee machine may further include a portafilter, a group head configured to receive the portafilter, and at least one water line configured to supply water. The coffee machine may further include at least one syringe pump configured to pressurize the water to attain the at least one flow set point. The coffee machine may further include an in-line heating element configured to control temperature of the water according to the at least one temperature set point. The coffee machine may further include a feedback loop configured to provide the temperature to the electronic control module to enable selectively adjusting the temperature.

The present disclosure describes slow cookers. A slow cooker includes an outer housing, a heating element, a container, a lid, a network housing unit, and a network antenna. The network antenna is located in a top portion of the network housing unit such that the network antenna resides above a maximum liquid fill line within the removable container or above a housing rim of the outer housing. The network may be a Wi-Fi network. Systems associated with operation of the slow cooker are also provided herein.

A cookware item includes: a cooking container for receiving food to be cooked and/or a lid for closing the cooking container; at least one handle for handling the cookware item, a handle body of the handle being force-transmittingly connected to the cooking container and/or to the lid of the cookware item by a handle connection part of the handle; an insulating part of the cookware item being disposed between the handle connection part and/or the lid to reduce a transfer of heat to the handle body; and an output unit at least partially integrated into the handle body and for visually outputting information to a user of the cookware item, the output unit having at least one light source, the light source being controllable by a controller of the cookware item and configured to be supplied with electrical power by a power source of the cookware item.

An air fryer with a steaming function includes a cooking chamber and a water tank arranged inside a housing. A steam generator is also arranged in the air fryer. A heating chamber is provided in the steam generator. The heating chamber in the steam generator is connected to a water tank via a water pump. High-temperature steam produced in the heating chamber of the steam generator is introduced into the cooking chamber. The steam generator is equipped with an over-temperature protector and a temperature sensor. Each of the over-temperature protector, the temperature sensor, the water pump, and the steam generator is electrically connected to the controller.

A system and method for estimating a time to foodstuff completion can include receiving a measured foodstuff parameter, determining a current foodstuff state based on: a previous foodstuff state and the measured foodstuff parameter, selecting a foodstuff parameter curve based on the current foodstuff state, determining an estimated time to completion using the foodstuff parameter curve.