Abstract: A method of operating a cooktop appliance in a precision mode includes monitoring a temperature with a temperature sensor and starting a vaporization timer when the monitored temperature enters a vaporization band. The method also includes freezing the precision mode when the vaporization timer expires and the monitored temperature is within the vaporization band.

Abstract: A method of operating a cooktop appliance in a precision mode includes monitoring a temperature with a temperature sensor and starting a vaporization timer when the monitored temperature enters a vaporization band. The method also includes freezing the precision mode when the vaporization timer expires and the monitored temperature is within the vaporization band.

Abstract: A method for monitoring progress of a preheat cycle includes: at a start of a preheat cycle, receiving a baseline temperature measurement from a sensor; during the preheat cycle, receiving a plurality of current temperature measurements from the sensor; repeatedly calculating a progress indicator value for the preheat cycle from a baseline progress indicator value; and when a latest one of the plurality of current temperature measurements is less than an immediate prior one of the plurality of current temperature measurements, setting the baseline temperature measurement to the latest one of the plurality of current temperature measurements and setting the baseline progress indicator value to an immediate prior progress indicator value.

Abstract: A method of operating a cooking appliance includes obtaining a set fluid temperature for a fluid within a cooking utensil, monitoring an actual fluid temperature via a first temperature sensor of a probe, determining a predicted air temperature above the fluid, monitoring an actual air temperature above the fluid via a second temperature sensor of the probe, comparing the actual air temperature to the predicted air temperature, and implementing a responsive action based on the comparison between the actual air temperature and the predicted air temperature.

Abstract: A bakeware assembly includes a cooking utensil defining a sidewall having a utensil aperture defined therethrough along an insertion direction. A probe adapter is mounted to the sidewall and includes an adapter wall defining an inner surface that is angled relative to the insertion direction to define a tapered channel positioned over the utensil aperture. A temperature probe includes a probe shaft sized for passing through the utensil aperture and a probe base positioned on the probe shaft and being configured for receipt within the tapered channel of the probe adapter, wherein the probe base engages the adapter wall when the temperature probe is in an installed position.

Abstract: An oven appliance assembly includes an oven appliance having a cabinet defining an oven cavity, a heat source disposed within the oven cavity, and a port having a socket. The oven appliance assembly also includes at least one oven accessory comprising a probe, a plug, and at least one resistive element. The plug includes a unique configuration for engagement with the socket of the port. The oven appliance assembly also includes a controller communicatively coupled with the oven appliance and the oven accessory. As such, the controller has at least one processor for performing a plurality of operations, including but not limited to determining a type of the oven accessory engaged with the port of the oven appliance based on a resistance value of the at least one resistive element of the oven accessory.

Abstract: A chillable slab system includes a temperature sensor disposed within an interior chamber of the slab, and a controller. The controller is in communication with the temperature sensor such that a temperature of the slab is measurable by the controller via the temperature sensor. Additionally, one or both of a battery and a charging coil is disposed within the interior chamber of the slab.

Abstract: An automatic control system for a cooking appliance monitors and adjusts a cooking operation on the cooking appliance. The automatic control system includes at least one control knob assembly, an image capturing device, and a controller operably coupled to the at least one control knob assembly and the image capturing device. The controller is configured to perform a series of operations, including receiving a desired temperature of a food item; capturing a first image of the food item; analyzing, by one or more computing devices using a machine learning image recognition model, the first image to determine one or more features of the food item; generating an input state of the food item based on the first image analysis; and determining an output action via a reinforcement learning system.

Abstract: A refrigerator appliance is provided including a cabinet defining a chilled chamber and a climate control assembly for regulating a chamber temperature within the chilled chamber. A controller receives a command to perform a dough proofing cycle and a dough removal time, determines a temperature schedule to facilitate the dough proofing cycle, the temperature schedule ending at the dough removal time, and operates the climate control assembly to regulate a chamber temperature of the chilled chamber in accordance with the temperature schedule.

Abstract: An oven appliance includes a two or more cooking chambers positioned within a cabinet and a heating assembly for independently and selectively heating those chambers. A controller is configured to obtain a cooking time for each cooking chamber, determine preheat statuses for each chamber, and generate adjusted cooking times for each chamber based at least in part on their respective preheat statuses. The heating assembly then heats each cooking chamber for its adjusted cooking time such that the heating processes in all cooking chambers end simultaneously.

Abstract: A method of operating a cooking appliance includes obtaining a set fluid temperature for a fluid within a cooking utensil, monitoring an actual fluid temperature via a first temperature sensor of a probe, determining a predicted air temperature above the fluid, monitoring an actual air temperature above the fluid via a second temperature sensor of the probe, comparing the actual air temperature to the predicted air temperature, and implementing a responsive action based on the comparison between the actual air temperature and the predicted air temperature.

Abstract: An oven appliance assembly includes an oven appliance having a cabinet defining an oven cavity, a heat source disposed within the oven cavity, and a port having a socket. The oven appliance assembly also includes at least one oven accessory comprising a probe, a plug, and at least one resistive element. The plug includes a unique configuration for engagement with the socket of the port. The oven appliance assembly also includes a controller communicatively coupled with the oven appliance and the oven accessory. As such, the controller has at least one processor for performing a plurality of operations, including but not limited to determining a type of the oven accessory engaged with the port of the oven appliance based on a resistance value of the at least one resistive element of the oven accessory.

Abstract: A battery-powered temperature probe for measuring the temperature of food products within a cooking utensil. The temperature probe includes a flexible arm that includes a flexible connector that extends between a first end and a second end, each of which include magnets to permit adjustable positioning of the flexible arm on the cooking utensil. In addition. the temperature probe includes a temperature sensor movably mounted to the first end of the flexible arm and being configured for measuring the temperature in the cooking utensil.

Abstract: A microwave appliance, as provided herein, may include a cabinet, a door, and an air handler. The cabinet may extend in a lateral direction between a first side end and a second side end. The door may be movably mounted to the cabinet at the first side end or the second side end to move between an open position permitting access to a cooking chamber and a closed position restricting access to the cooking chamber. The door may include a peripheral frame and a front window bounded by the peripheral frame. The peripheral frame may define an air inlet and an air outlet downstream from the air inlet. The air outlet may be defined below the front window. The air handler may be mounted within the door in fluid communication between the air inlet and the air outlet to motivate an airflow therethrough.

Abstract: A microwave appliance, as provided herein, may include an outer casing, an inner liner, a door, and an air handler. The outer casing may define an air inlet above a cooktop appliance. The outer casing may extend in a lateral direction between a first side end and a second side end. The inner casing may define a cooking chamber. The door may include a peripheral frame and a front window bounded by the peripheral frame. The peripheral frame may define an air outlet downstream from the air inlet and below the front window along the vertical direction. The air handler may be mounted within the outer casing in fluid communication between the air inlet and the air outlet to motivate an airflow therethrough. The air outlet may define an airflow curtain path extending outward from the outer casing in front of the door.

Abstract: An oven appliance, as provided herein, may include a cabinet, a ventilation fan, a sensor enclosure, a humidity sensor, and a sensor fan. The cabinet may define a cooking chamber and an oven vent downstream therefrom to direct an exhaust flow from the cooking chamber. The ventilation fan may be mounted to the cabinet downstream from the oven vent. The sensor enclosure may be mounted to the cabinet outside of the cooking chamber. The sensor enclosure may define an enclosed volume. The sensor enclosure may further define an active flow entrance and an active flow exit in fluid communication with the enclosed volume. The humidity sensor may be disposed within the enclosed volume. The sensor fan may be attached to the cabinet outside of the cooking chamber and upstream from the ventilation fan.

Abstract: Cooking exhaust systems for use with a cooktop appliance are provided herein. An exhaust system may include a casing, an image monitor, and an air handler. The casing may define an air inlet and an air outlet above the cooktop appliance. The image monitor may be supported on the casing. The air handler may be mounted within the casing in fluid communication between the air inlet and the air outlet to motivate an airflow therethrough. The air outlet may define an airflow curtain path extending outward from the casing in front of the image monitor.

Abstract: A microwave appliance, as provided herein, may include a cabinet, a door, and an air handler. The cabinet may extend in a lateral direction between a first side end and a second side end. The door may be movably mounted to the cabinet at the first side end or the second side end to move between an open position permitting access to a cooking chamber and a closed position restricting access to the cooking chamber. The door may include a peripheral frame and a front window bounded by the peripheral frame. The peripheral frame may define an air inlet and an air outlet downstream from the air inlet. The air outlet may be defined below the front window. The air handler may be mounted within the door in fluid communication between the air inlet and the air outlet to motivate an airflow therethrough.

Abstract: A microwave appliance, as provided herein, may include an outer casing, an inner liner, a door, and an air handler. The outer casing may define an air inlet above a cooktop appliance. The outer casing may extend in a lateral direction between a first side end and a second side end. The inner casing may define a cooking chamber. The door may include a peripheral frame and a front window bounded by the peripheral frame. The peripheral frame may define an air outlet downstream from the air inlet and below the front window along the vertical direction. The air handler may be mounted within the outer casing in fluid communication between the air inlet and the air outlet to motivate an airflow therethrough. The air outlet may define an airflow curtain path extending outward from the outer casing in front of the door.

Abstract: A cooking engagement system and methods therefore are provided. The system includes a cooktop appliance and an interactive assembly positioned above the cooktop appliance. The interactive assembly includes an image monitor that presents various images and information to a user, e.g., recipes. The system includes an infrared sensor for detecting operation of the cooktop appliance. When the infrared sensor senses a temperature level that exceeds a threshold, a controller communicatively coupled thereto activates an air handler to move or motivate an airflow across or about the image monitor. In this way, the image monitor may be cooled and condensation is prevented from forming on the imaging surface of the image monitor.