A blood collection device including a flow path to flow blood by capillary action capable of collecting a large amount of blood is provided. The blood collection device includes an introduction inlet 23 for introducing the blood of the subject M, a substrate 20 connected to the introduction inlet 23 and including a flow path 25 to flow the blood by capillary action, and a cooling body 30 for cooling the flow path 25.

In some embodiments, a medicinal carrier device includes: one or more sections of thermal insulation positioned to form an internal space with an adjacent first side region and an adjacent second side region; a first panel including a first phase change material positioned within the first side region of the internal space, the first side region of a size and shape to firmly contain an integral number of portable cold packs in thermal contact with the first panel; and a second panel including a second phase change material positioned within the second side region of the internal space, the second side region of a size and shape to firmly contain an integral number of portable cold packs in thermal contact with the second panel.

A drug delivery system includes a drug delivery device that delivers medicament to a user and a storage container having a container body that defines at least one storage compartment. The storage container includes a controller, at least one temperature sensor associated with the at least one storage compartment, at least one temperature control device associated with the at least one storage compartment, and at least one retention mechanism coupled to the storage container. In response to a user input, the controller is adapted to activate the at least one temperature control device to adjust the temperature in the at least one storage compartment to an administration temperature and transmit a signal to the at least one retention mechanism to release the drug delivery device from the at least one storage compartment after the temperature in the at least one storage compartment reaches the administration temperature.

A storage bag configured to contain or that contains at least one therapeutic compound such as a viral vector and non-viral vector is provided. In one embodiment, the storage bag contains a viral vector and/or a non-viral vector containing genetic material. The storage bag has two edges and two ends including a first face and a second face integrally joined at the two edges of the bag and defining an inner surface and an outer surface forming the bag; the inner surface including a higher melting polymer, and the outer surface including a lower melting polymer; a joint at one of the ends; a discrete composite sheet having a first side including a higher melting polymer and a second side including a lower melting polymer folded over the joint with the first side including a lower melting polymer engaging the joint to form a lap seam over the joint.

A low-temperature storage system 100 is provided, which can, with a simple structure, minimize heat transfer into the low-temperature storage chamber, reduce the operation noise, allow easy positioning of a reciprocating part inside the low-temperature storage chamber, and preclude device bulkiness outside the low-temperature storage chamber. The low-temperature storage system 100 includes a low-temperature storage chamber 110, and a transfer mechanism 120. The transfer mechanism 120 includes an in-storage unit 121 and an external unit 140. The in-storage unit 121 includes a reciprocating part 122 that holds the storage objects C, a turn guide 126 that guides the reciprocating part 122, and a lift member 131 that causes the reciprocating part 122. The external unit 140 includes a torque transmission part 141, a lift transmission part 147, and a detachable moving part 150 that drives the torque transmission part 141 and lift transmission part 147.

A device and a method for mixing a fluid in a specimen bag is provided herein. In one embodiment, the device includes a mechanism for creating a first vortex and a second vortex. The first vortex is on a first side of a bag containing the fluid, and the second vortex is on a second side of the bag. The mechanism includes a first inflatable airbag and a second inflatable airbag. The first inflatable airbag is configured to create the first vortex when inflated and the second inflatable airbag is deflated. The second inflatable airbag is configured to create the second vortex when inflated and the first inflatable airbag is deflated.

A device and a method for mixing a fluid in a specimen bag is provided herein. In one embodiment, the device includes a mechanism for creating a first vortex and a second vortex. The first vortex is on a first side of a bag containing the fluid, and the second vortex is on a second side of the bag. The mechanism includes a first inflatable airbag and a second inflatable airbag. The first inflatable airbag is configured to create the first vortex when inflated and the second inflatable airbag is deflated. The second inflatable airbag is configured to create the second vortex when inflated and the first inflatable airbag is deflated.

Embodiments of the present disclosure are directed to devices, systems, and methods for controlling environmental conditions for a volume of material. In some embodiments, a handheld, portable environmental control sleeve (ECS) is disclosed which is configured for controlling at least one environmental condition of a drug contained within a drug delivery or storage device (DDSD). The ECS includes an environmental control mechanism (ECM), thermal insulation material, at least one of a power source, a processor, at least one electrical contact, at least one indicator, at least one switch, at least one environmental condition sensor, a wireless transceiver, a phase change material and at least one heat dissipater. Upon the ECS receiving at least a portion of the DDSD, the at least one environmental condition of a drug contained within the DDSD is controlled by the ECM to be within a predetermined range.

The invention relates to a thermally insulated transport box and an arrangement in a thermally insulated transport box, wherein the box comprises a cover and a box body. The box body side walls, end walls, an opening and a bottom wall. The inner surfaces of the side walls comprise half columns projecting from the side wall, wherein the inner surfaces of the end walls further comprise half columns projecting from the end wall, and the half columns run vertically along the side walls and along the end walls. The box further comprises at least one partition wall comprising notches in its opposing edges, and as the partition wall is positioned to cover at least part of the opening the partition wall is supported by the half columns.

A portable fluid transportation enclosure can include a specimen carrier within a portable container that can be transported portably by a user. The carrier can define one or more specimen bores therein, where each specimen bore can be configured to receive a specimen therein. Such a gyroid shaped carrier within a container can improve heat transfer between specimen supported by the carrier and can help to limit shock transferred to the specimen within the carrier, such as from an impact to the container in which the gyroid carrier is located.