A temperature control bottle assembly for heating and cooling drinks includes a base control apparatus and at least one conductive bottle apparatus. The base control apparatus comprises a cylindrical housing having a pair of semicircular depressions extending towards a bottom side defining a left half, a right half, and a divider wall extending therebetween. A heat exchange is coupled within an inner cavity and comprises a CPU, a heating element disposed beneath the right half, and a cooling filament disposed beneath the left half. A power supply and a plurality of controls are in operational communication with the heat exchange. The conductive bottle apparatus comprises a bottle and a thermally conductive bottom plate coupled to the bottle. The bottom plate has a pair of semicircular protrusions corresponding to, and selectively engageable with, the pair of depressions of the housing to control the temperature of the bottle contents.

A supple carrier for carrying a container of medically useful solution or suspension. The supple carrier includes a first monitoring window providing a first visualization perspective of the container contained by the envelope and one or more adjustable pressurizers. The supple carrier can delay the temperature change of the medically useful solution or suspension carried by the carrier.

Systems, devices, and methods are disclosed for pen that distributes viscous plant material, such as rosin, from a cartridge. The pen receives, from a button, input corresponding to a first control instruction. The pen has a motor configured to receive the first control instruction from the controller and, in response, drive a spindle that linearly displaces a plunger, wherein the linear displacement of the plunger causes plant material to be pushed out of a nozzle of the pen. The pen cartridge includes a rubber plug configured to be linearly displaced by the plunger to cause rosin to be disturbed from the cartridge.

A medical transport system can include a sleeve configured to receive a reservoir therein and a transport container including a compartment configured to receive the sleeve and the reservoir therein. The transport container can include a controller configured to receive from the sleeve an identity of the sleeve or the reservoir, verify the identity of the sleeve, and log receipt and storage of the sleeve.

An adjustable bottle support for a pump used in medical procedures comprises first and second support members mounted on an attachment member which is attachable to a pump body. The second support member is pivotally mounted on the attachment member for rotation between a first position in which in which the first and second support members are aligned and level with one another and a second position in which the second support member is tilted and slopes upwardly in a direction away from the first support member.

An oxygen-activated heat releasing enclosure includes an insulated shell with at least a first cutout portion, a second cutout portion, and a sealable opening that opens to a cavity of the oxygen-activated heat releasing enclosure. A transparent window, disposed within the first cutout portion, allows contents within the cavity to be visible from outside of the cavity. A heat releasing member, disposed within the second cutout portion, includes a powder chamber containing an oxygen-activated heat releasing powder. The powder chamber is formed by (i) an oxygen permeable membrane that allows oxygen to pass through the oxygen permeable membrane into the powder chamber and (ii) a thermally conductive membrane disposed between the oxygen permeable membrane and the transparent window. The oxygen-activated heat releasing enclosure also includes a sealing strip for sealing the sealable opening.

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 container system configured to transfer heat to a fluid contained within the container system, such as dialysate. The container system may be configured to fluidly couple to a medical machine. The container system includes a flexible material comprising a wall of the container system. In examples, the flexible material defines a container volume configured to contain the fluid. The flexible material mechanically supports a circuit configured to generate and transfer heat to the fluid. The circuit is configured to flex and/or bend when the flexible material flexes and/or bends. In examples, the container system includes control circuitry configured to cause the circuit to generate heat based on a temperature of the fluid.

A domestic extracting machine that is designed to extract herbs contained in a capsule, which includes: a capsule-compartment, a condensation-compartment, an air blower, a heating mechanism, a stirring mechanism, and a control mechanism. The capsule is designed to contain the herbs and includes perforations and an opening closed by a cover.

A device for dry thawing biological substances and methods for using the same are provided. The dry thawing device can be configured to receive a biological substance within a woven pocket. The woven pocket can include temperature sensors configured to measure a temperature of the interior volume and heating elements configured to heat an interior of the woven pocket 106 based upon the measured temperature to avoid overheating or underheating the biological substance during thawing. The woven pocket can also include mechanical vibrators configured to agitate the biological substance during thawing to achieve an approximately homogeneous temperature profile within the woven pocket.