A system includes a first food compartment and a second food compartment configured to be disposed in a first portion and a second portion, respectively, of a fluid immersion device. The first food compartment defines an inner volume and is configured to fluidically isolate a first food item in the inner volume and to transfer thermal energy between a fluid in the first portion of the fluid immersion device and the first food item. The second food compartment is configured to receive a second food item and is at least temporarily coupled to a carrier configured to be disposed in the second food compartment. At least a portion of the second food compartment is fluid permeable and is configured to receive a flow of fluid from the second portion of the fluid immersion device to transfer thermal energy from the fluid to the second food item.

A thermal immersion circulator can comprise a heater including a hollow cylindrical main body having an inlet opening at a first end thereof and an outlet opening in a side wall thereof. The heater can include a flexible circuit board having a plurality of resistive bands controlled by controlling electronics such as TRIACs, which can be water-cooled. A thermal immersion circulator including such a heater can be used in scientific laboratories or sous vide food cooking.

A thermal immersion circulator can comprise a heater including a hollow cylindrical main body having an inlet opening at a first end thereof and an outlet opening in a side wall thereof. The heater can include a flexible circuit board having a plurality of resistive bands controlled by controlling electronics such as TRIACs, which can be water-cooled. A thermal immersion circulator including such a heater can be used in scientific laboratories or sous vide food cooking.

An apparatus and method for control of temperature-precise culinary processes with real-time verification of food safety and pathogen destruction. The apparatus and method utilizes software process control for monitoring and recording input temperature sensors, controlling active relays for adjusting temperature according to set programmable recipes. A connector kit (local or in the cloud) or gateway module receives real time data from the sensors and relays, and enables communication of real time data with client applications. An automatic process interface (“API”) and a communication channel (“websocket”) enable the connector kit (local or in the cloud), mobile applications, a website and cloud to share data and instructions. The API also stores data for authentication of client applications communicating that information via the connector kit (local or in the cloud) or gateway module enabling execution of client applications; the viewing of live and historical data from sensors; thereby generating live and historically validated food safety data with means to verify pathogen destruction and safety.

An apparatus and method for control of temperature-precise culinary processes with real-time verification of food safety and pathogen destruction. The apparatus and method utilizes software process control for monitoring and recording input temperature sensors, controlling active relays for adjusting temperature according to set programmable recipes. A connector kit (local or in the cloud) or gateway module receives real time data from the sensors and relays, and enables communication of real time data with client applications. An automatic process interface (“API”) and a communication channel (“websocket”) enable the connector kit (local or in the cloud), mobile applications, a website and cloud to share data and instructions. The API also stores data for authentication of client applications communicating that information via the connector kit (local or in the cloud) or gateway module enabling execution of client applications; the viewing of live and historical data from sensors; thereby generating live and historically validated food safety data with means to verify pathogen destruction and safety.

A cooking apparatus includes a dual-chamber container with an inner container for holding a food item to be cooked and an outer container for maintaining contact between a temperature-controlled heat transfer liquid and the inner container while the food is being cooked. The dual-chamber container includes an inlet fluid port and outflow fluid port which may be coupled directly to corresponding fluid port connectors on a temperature control unit, or an intervening fluid coupling assembly may convey heat transfer liquid between the control unit and the dual-chamber container. Some control units are adapted to simultaneously control cooking temperature for more than one dual-chamber container. Some dual-chamber containers have a flexible inner container that is separable from an outer container which may be a rigid container or a flexible container.

A cooking apparatus includes a dual-chamber container with an inner container for holding a food item to be cooked and an outer container for maintaining contact between a temperature-controlled heat transfer liquid and the inner container while the food is being cooked. The dual-chamber container includes an inlet fluid port and outflow fluid port which may be coupled directly to corresponding fluid port connectors on a temperature control unit, or an intervening fluid coupling assembly may convey heat transfer liquid between the control unit and the dual-chamber container. Some control units are adapted to simultaneously control cooking temperature for more than one dual-chamber container. Some dual-chamber containers have a flexible inner container that is separable from an outer container which may be a rigid container or a flexible container.

A sous-vide circulator cooker temperature control device that includes a motor module which can be replaced by users when the motor fails. The circulator cooker temperature control device includes an outer portion, an upper portion, a middle portion, and a lower portion. The upper portion includes a programmable controller storing one or more codes that represent cooking temperatures and times selectable by a user. The controller can be programmed to receive additional codes. The controller includes a speaker and a voice assist algorithm configured to alert users of events.

In variants, the method for in-appliance sous vide cooking control can include: determining a thermal model, determining an equilibrium temperature based on the thermal model, facilitating control of a cooking appliance based on the equilibrium temperature, and/or other processes.

In variants, the method for in-appliance sous vide cooking control can include: determining a thermal model, determining an equilibrium temperature based on the thermal model, facilitating control of a cooking appliance based on the equilibrium temperature, and/or other processes.