A temperature measuring device installed to a mouth (11) of a container (10) for sensing the temperature inside the container (10) includes a hanger (100) mounted onto the mouth (11), a temperature sensing element (200), a temperature sensing module, a wireless communication module, and an antenna (500). The temperature sensing element (200) is suspended from the hanger (100); the temperature sensing module is installed to the hanger (100) and electrically connected to the temperature sensing element (200); the wireless communication module is installed to the hanger (100) and electrically connected to temperature sensing module; and the antenna (500) is embedded into the hanger (100) and electrically coupled to the wireless communication module. The temperature sensing element (200) suspended from the container (10) can measure the temperature of a liquid contained in the container (10), and the measured data can be outputted through the wireless communication module.

A nursing simulator system, includes a nursing body with a torso and a plurality of limbs; an access panel; a bladder with nipple attachment points that protrude through apertures in the nursing body; nipples that attach to the nipple attachment points; and a thermostat controlled heating system with a heating element, a temperature display, and control buttons. The limbs are flexible and adjustable, such that the limbs are positionable to hold a nursing infant.

A nursing simulator system, includes a nursing body with a torso and a plurality of limbs; an access panel; a bladder with nipple attachment points that protrude through apertures in the nursing body; nipples that attach to the nipple attachment points; and a thermostat controlled heating system with a heating element, a temperature display, and control buttons. The limbs are flexible and adjustable, such that the limbs are positionable to hold a nursing infant.

The present invention relates to a microwave powered sensor assembly for microwave ovens. The microwave powered sensor assembly includes a microwave antenna to generate an RF antenna signal in response to microwave radiation at a predetermined excitation frequency. A direct current (dc) power supply circuit of the microwave powered sensor assembly is operatively coupled to the RF antenna signal to extract energy from the RF antenna signal and produce a power supply voltage. A sensor is connected to the power supply voltage and configured to measure a physical or chemical property of a food item under heating in a microwave oven chamber.

The present invention relates to a microwave powered sensor assembly for microwave ovens. The microwave powered sensor assembly includes a microwave antenna to generate an RF antenna signal in response to microwave radiation at a predetermined excitation frequency. A direct current (dc) power supply circuit of the microwave powered sensor assembly is operatively coupled to the RF antenna signal to extract energy from the RF antenna signal and produce a power supply voltage. A sensor is connected to the power supply voltage and configured to measure a physical or chemical property of a food item under heating in a microwave oven chamber.

A device for bringing baby food to a certain temperature comprises a vessel having an interior for accommodating a holder for the baby food, a unit for obtaining a temperature for bringing the interior to a certain temperature, and a first sensor for determining the temperature in interior. A second sensor is present for determining the temperature of the baby food in the container. As a result, baby food can be brought to a certain temperature in a manner that is gentle, yet efficient.

A device for bringing baby food to a certain temperature comprises a vessel having an interior for accommodating a holder for the baby food, a unit for obtaining a temperature for bringing the interior to a certain temperature, and a first sensor for determining the temperature in interior. A second sensor is present for determining the temperature of the baby food in the container. As a result, baby food can be brought to a certain temperature in a manner that is gentle, yet efficient.

A drinking/feeding container and method for delivering fluid to a user at a drinking/feeding temperature which is higher than a storage temperature of the fluid. The container includes a fluid storage compartment, a lid and a heating device. The heating device is positioned between the fluid storage compartment and the lid. The heating device has an inlet which accepts the fluid from the fluid storage compartment, an outlet which dispenses the fluid to the lid and a passageway which extends between the inlet and the outlet. A Peltier device is provided between the inlet and the outlet and cooperates with the passageway to heat the fluid as the fluid moves from the inlet to the outlet. A power source supplies power to the heating device. A pulsing member pulses the power to the heating device whereby the pulsing of the power prevents the heating element from overheating.

Provided are a smart bottle and a method for controlling the smart bottle. A smart bottle comprises a bottle for containing liquid; a base formed to be combined to one side of the bottle; a first sensor installed in the bottle or the base, and configured to obtain level information of liquid contained in the bottle; a third sensor configured to obtain inclination information of the bottle; a heater configured to heat the liquid contained in the bottle; a controller configured to control operation of the heater based on the temperature information, determine a feeding start and a feeding end based on the inclination information, and modify the level information based on the inclination information; a communication unit configured to transmit the inclination information and the level information to an external device; and a battery configured to supply power to the first sensor and the base.

An infant feeding system for orally feeding a liquid to an infant is provided. The infant feeding system includes a user interface, at least one sensor for measuring at least one physical property, a memory for storing machine executable instructions, and a processor. Execution of the machine executable instructions causes the processor to: acquire feeding data by measuring the at least one physical property with the at least one sensor; send the feeding data to a feeding database; receive a user response descriptive of feeding conditions from a user interface; send contextual data to the feeding database, wherein the contextual data comprises the user response; receive instructional data from the feeding database in response to the contextual data and the feeding data; and output feeding instructions on the user interface using the instructional data.