The invention relates to a method for handling foods, comprising the following steps: providing a plurality of thermometers, each comprising an identifier that is specific to the thermometer, wherein the relevant thermometer comprises at least one core temperature sensor and one external temperature sensor, providing at least one food in which one of the thermometers is inserted, referred to in the following as the inserted thermometer, wherein the core temperature sensor of the inserted thermometer is arranged to be further inside the food than the external temperature sensor, continuously measuring an external temperature using the external temperature sensor of the plurality of thermometers, continuously wirelessly transmitting the external temperature together with the identifier of the relevant thermometer to a control unit, transferring the food together with the inserted thermometer from a first receiving space having a first receiving space temperature into a second receiving space having a second receiving space temperature, wherein the two receiving space temperatures differ from one another, thermometer assignment: assigning, by means of the control unit, which of the plurality of thermometers has been transferred as the inserted thermometer together with the food on the basis of the measured external temperature of the plurality of thermometers.

An apparatus includes a temperature sensing circuit that includes both on-chip and off-chip components. The apparatus includes components that use the same source as a reference voltage, thus allowing variations in the reference voltage to be compensated for. Additionally, the apparatus can provide error averaging to compensate for deterministic error sources.

A device for measuring a temperature, comprising a circular printed circuit board comprising a circular inner material comprising a controller, a power supply and a transmitter, and an outer material which is arranged radially around the circular inner material; and at least one thermal sensor which is arranged at the outer material of the circular printed circuit board.

A clippable air condition monitoring device detects air parameters inside an enclosed space below a canopy of an infant carrier. The clippable air condition monitoring device includes a generally U shaped flexible member configured to snap fit on an edge of the canopy, and one or more sensors positioned on the flexible member. The sensors are configured to detect one or more air parameters which determine comfort of an infant seated under the canopy of the infant carrier. In an embodiment, the flexible member is made of an elastic material. In an embodiment, the air parameters comprise one or a combination of temperature, relative humidity and heat index.

A system for remotely retrieving sensed conditions at one or more building components. The building components are remote or numerous so that a wireless collection of the sensed conditions provides a significant benefit to a builder or building operator. A remote transceiver sends a wireless signal to a building component. The building component includes an onboard transceiver. At least some of the energy from the transmitted wireless signal is received by the onboard transceiver, sent to a storage device, and stored therein. The stored energy is used to operate a sensor for sensing an onboard condition. The onboard condition is then wirelessly transmitted by the onboard transceiver back to the remote transceiver to be displayed.

A sensor may include a housing configured to couple to a machine; at least one processor within the housing; a battery within the housing; a communication adapter within the housing and coupled to the at least one processor; and a measurement device within the housing and coupled to the at least one processor and the battery. The communication adapter may be configured to wirelessly connect to a communication network. The measurement device may be configured to: obtain measurements of a physical characteristic of the machine to which the housing is coupled and transmit the measurements via the communication adapter, and automatically switch between a first measurement mode comprising a first sampling rate and a second measurement mode comprising a second sampling rate, different from the first sampling rate, without human intervention.

A method for monitoring transportation of a package, as well as the apparatus for monitoring transportation, that uses an environmental monitoring device electrically connected to a vibration-to-electricity converter. The vibration-to-electricity converter is electrically attached to the environmental monitoring device.

A temperature sensor device measures a temperature related to a transport cart system and wirelessly transmits the measured temperature. In the transport cart system a transport cart obtains electric power from the power supply line in a non-contact manner. The temperature sensor device includes an E-shaped core, a sensor body, and a temperature sensing substrate. The E-shaped core obtains electric power from the power supply line in a non-contact manner. The sensor body operates by electric power supplied by the E-shaped core and measures the temperature in the vicinity of the terminal block of the transport cart system. The temperature sensing substrate operates by electric power supplied by the E-shaped core and wirelessly transmits the temperature measured by the sensor body.

A method for monitoring transportation of a package, as well as the apparatus for monitoring transportation, that uses an environmental monitoring device electrically connected to a vibration-to-electricity converter. The vibration-to-electricity converter is electrically attached to the environmental monitoring device.

A method for monitoring transportation of a package, as well as the apparatus for monitoring transportation, that uses an environmental monitoring device electrically connected to a vibration-to-electricity converter. The vibration-to-electricity converter is electrically attached to the environmental monitoring device.