A pyrolytic oven comprises a housing and a muffle delimiting a cooking chamber inside the housing. A lighting module serves to illuminate the cooking chamber, wherein the lighting module has a cooling structure with an arrangement of cooling extensions formed in particular as pins or ribs, which project into a gap between housing and muffle and have a convection effect in a cooking mode of the oven. A fan device of the oven is configured and controlled to generate an air flow encountering the cooling structure in the gap in a pyrolytic mode of the oven. The cooling structure of the lighting module further has a wall formation, which in pyrolytic mode generates a wind shadow relative to the air flow for a number of cooling extensions of the cooling structure arranged distributed in a transverse plane to the flow direction of the air flow.

An intelligent heating system device is provided with processing, communications, and other information technology components, for remote monitoring and control and various value added features and services, embodiments of which use a renewable energy-powered electrolyzer to produce hydrogen as an on-demand fuel stream for a heating element of the heating system.

The present disclosure relates to an induction heating device and a method for controlling the same. In accordance with the present disclosure, first, inductive sensing is periodically performed to detect a specific object with inductive heating property. Next, current sensing of the specific object having the inductive heating property is performed to again check whether the specific object has the inductive heating property. Thus, when the user simply places the loaded object on the device, the device may allow the user to quickly and intuitively confirm whether the corresponding loaded object has the inductive heating property.

Apparatus for obtaining potable water from an impure water source comprising a container having at least a first end wall, a second end wall, a first sidewall, a second sidewall and a top wall; a volume of the impure water; a heater device for heating the volume of impure water to produce gaseous water molecules; a condensing system located inside the container for providing water condensate from the water molecules; an outlet for providing a flow of potable water from the water condensate; and a collection device for collecting the water condensate and moving the water condensate towards the outlet.

Apparatus for obtaining potable water from an impure water source comprising a container having at least a first end wall, a second end wall, a first sidewall, a second sidewall and a top wall; a volume of the impure water; a heater device for heating the volume of impure water to produce gaseous water molecules; a condensing system located inside the container for providing water condensate from the water molecules; an outlet for providing a flow of potable water from the water condensate; and a collection device for collecting the water condensate and moving the water condensate towards the outlet.

An induction cooking appliance and method of assembly is generally provided herein. The induction cooking appliance may include a cooktop, an induction element, a mount plate, and a coil bracket. The induction element may be positioned below the cooktop. The mount plate may be positioned below the induction element. The mount plate may include a top face and a bottom face. The mount plate may define a tab aperture extending through the mount plate from the top face to the bottom face. The coil bracket may support the induction element between an upper surface and the mount plate. The coil bracket may include a support body and an attachment tab. The support body may define an axis of rotation. The attachment tab may extend from the support body and through the tab aperture. The attachment tab may be slidably positioned to move along a circumferential direction.

A system including at least one cooking device having a connection for connecting the cooking device to a electrical grid and a connection for connecting the cooking device to an energy storage device, has a control unit which is set up to regulate a power draw from the electrical grid and/or from the energy storage device during operation of the at least one cooking device based on a heating requirement of the cooking device such that the power draw from the electrical grid does not exceed a defined threshold value (L.sub.Max).

A system including at least one cooking device having a connection for connecting the cooking device to a electrical grid and a connection for connecting the cooking device to an energy storage device, has a control unit which is set up to regulate a power draw from the electrical grid and/or from the energy storage device during operation of the at least one cooking device based on a heating requirement of the cooking device such that the power draw from the electrical grid does not exceed a defined threshold value (L.sub.Max).

A friction heated oven with a processing chamber in fluid communication with a heating blower, where the heating blower is operably coupled to a motor that may be fitted with a sensor adapted to measure a condition and a first controller coupled to the sensor, whereby the first controller generates an output signal received by a second controller, where the second controller is configured to adjust, based on the output signal, a maximum allowable rotational speed of the motor.

A friction heated oven with a processing chamber in fluid communication with a heating blower, where the heating blower is operably coupled to a motor that may be fitted with a sensor adapted to measure a condition and a first controller coupled to the sensor, whereby the first controller generates an output signal received by a second controller, where the second controller is configured to adjust, based on the output signal, a maximum allowable rotational speed of the motor.