An actively heated or cooled portable container is provided. The container has a portable body with a receiving portion defined by an inner wall that receives a liquid. A heating and cooling system housed in the portable body has a cooling element in thermal communication with at least a portion of the inner wall to remove heat from the liquid. The heating and cooling system also has a heating element in thermal communication with at least a portion of the inner wall, control circuitry to control the operation of the heating element and one or more power storage elements to provide electrical energy to the heating element and/or control circuitry. The control circuitry controls the heating element to add heat to the liquid in the receiving portion to maintain the temperature of the liquid at a predetermined temperature or increase the temperature of the liquid above said predetermined temperature. Optionally, the control circuitry can calculate a volume of the liquid in the receiving portion of the portable body based on sensed information indicative of a temperature of the liquid in the receiving portion.

In an embodiment, the present disclosure is directed to an assembly for preventing condensation on a surface of an object. The assembly may include a condensation mitigation device; a surface temperature sensor configured to sense a temperature; an ambient temperature sensor configured to sense an ambient temperature; and a humidity sensor configured to sense a humidity. The condensation mitigation device may be operably coupled to the surface temperature sensor, the ambient temperature sensor, and the humidity sensor. The condensation mitigation device may be configured to calculate a dewpoint temperature based on the ambient temperature and the humidity; repeat the calculation of the dewpoint temperature for different times; calculate a linear regression for the calculated dewpoint temperatures; and transmit a control signal to begin activating the condensation mitigation device based on the surface temperature, the current dewpoint temperature, and the linear regression for the calculated dewpoint temperatures.

A temperature controlled storage apparatus 8(10), comprising; a plurality of lockable storage spaces, each of the plurality of lockable storage spaces comprising one or more compartments; in which the temperature of each of the one or more compartments is independently controllable to provide either one of: chilled temperature; or frozen temperature; and wherein access to the storage space is remotely programmable.

An interactive therapeutic blanket system is disclosed. The interactive therapeutic blanket system provides a set of selectable features that serve to address mental health therapeutic user needs. In one embodiment, a user selects a selectable blanket configuration using a system interface and a blanket system controller controls a set of active blanket devices to the selectable blanket configuration. In one feature, the set of active blanket devices include a set of vibration devices operating according to a temporally-referenced vibration regimen. In another feature, the set of active blanket devices include a set of pressure devices to impart discrete pressure to a user at discrete body locations.

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.

A portable thermal insulated apparatus for cooling or heating items stored therein. The thermal insulated apparatus includes a container having a lid that removably secures to an open first end thereof and a reservoir unit that removably secures to an open second end. The container includes an inner tube and an outer tube forming an insulated double-wall sealed at both ends in which the lid and reservoir unit can be connected thereto. The reservoir unit removably receives a thermal unit that provides cooling or heating to the contents of the container when affixed thereto. The thermal unit is separable from the reservoir unit, such that the thermal units are interchangeable as needed. In some embodiments, the thermal unit is directly securable to the lid and the second end of the container is permanently sealed.

A drinking vessel for delivering air to a user may include an outer shell and an inner shell. The outer shell may define at least an air inlet at a lower region of the outer shell and an air outlet at an upper region of the outer shell. The inner and outer shells may together at least partially define an air flow passage which may be in communication with the air inlet and the air outlet. The drinking vessel may include an air moving device. The air moving device may be configured to move air from the air inlet, through the air flow passage, to the air outlet. The drinking vessel may include a power source and an actuation device. The actuation device may be operably coupled with the air moving device and the power source for selectively activating the air moving device with the power source.

Delivery of items has long been subject to degradation through pilfery, improper handling, or exposure to excessive environmental conditions. By providing items for delivery, or a mobile locker or secure container with the item for delivery, with an identifier readable and reportable by networked devices, custody of the item can be determined along with any degradation event. As a result, the providing source for the item and the receiving customers may be assured that the item delivered is provided in acceptable condition.

An apparatus is presented for thawing a frozen drink in a glass bottle. The apparatus includes: a housing with a bottle receiving space arranged therein and designed to accommodate a glass drinking bottle; a heating device that is arranged in the housing and has radiative heat sources that are arranged around the bottle receiving space in order to radiate heat energy onto the glass drinking bottle, and a thermal insulation and cooling device which is arranged in the housing. The thermal insulation and cooling device has a thermally insulating space which is formed between the radiative heat sources and an outer housing wall, so as to encompass the outer housing wall. An air cooling system draws air from the surroundings into the housing via an air intake and conveys the air via an air guide to an air outlet, where the air guide encompasses the thermally insulating space.

A lunch box includes a housing having a bottom surface, a front wall, a rear wall, two opposing sidewalls and an open top in communication with an interior storage chamber. A pivotal lid encloses the open top to provide selective access to the interior storage chamber. A freeze pack and an accessory tray seamlessly fit within the interior storage chamber. The tray houses a sensor that measures temperature, pressure and humidity within the interior chamber, and transmits the measured data to a portable electronic device. Therefore, a remote user can monitor the condition of the storage chamber without opening the lid or otherwise accessing the lunch box.