An eco-friendly detachable container including a base assembly having a metallic plate attached to a support panel; telescopic corner posts; side panels; a top panel; a first door assembly; a second door assembly; a locking mechanism. The detachable container is vertically adjustable. The support pane, the telescopic corner posts, the side panels, the top panel, the first door assembly, the second door assembly, and the locking mechanism are made entirely from recycled plastic, virgin plastic, or regrind plastic. The metallic plate is made of a recycled aluminum.

A management system according to the present invention may comprise: a body including an opening/closing door; a first terminal that is located inside the body, measures environment information inside the body, and generates first data on the basis of the measured environment information; a second terminal that is located outside the body, generates second data including state information of the opening/closing door, and generates third data on the basis of the first data and the second data; and a server that generates a signal including risk coefficient information indicating a contamination level inside the body on the basis of the third data, and transmits the signal to a user terminal.

Aspects of the disclosure relate to sealing devices, methods, and systems. A sealing device may be configured to seal a container. The sealing device may send or trigger a message indicating the current geographic location of the sealing device based on the sealing device being removed from the container. In some examples, free ends of a strap of the sealing device may be configured to irreversibly attach to each other. In some examples, a free end of a strap of the sealing device may be configured to irreversibly attach with a one-way slot at a housing of the sealing device.

A rack includes: a casing; M pairs of supports that are provided inside the casing so as to extend in a depth direction and arrayed at regular intervals in an up-down direction; and a lock mechanism that locks returnable containers each housed while being supported so as to be slidable along one pair of supports. The casing of the rack is divided into N rows by (N1) partition plates, with the M pairs of supports provided in each row, to be able to house a maximum of (MN) returnable containers. The lock mechanism is provided in each of the (N1) partition plates so as to extend through the partition plate and correspond to each tier, and simultaneously locks two returnable containers that are housed adjacent to each other on one side and the other side of the partition plate.

Secure storage carts are disclosed herein and capable of being assembled and disassembled on-site without common disadvantages that affect storage carts designed for on-site assembly. Secure storage carts disclosed herein may be assembled to a reduced tolerance, eliminating potential points of failure in the assembled cart, and giving the user a more solid feel to the operation. Methods for assembling storage carts are also disclosed herein and can include adjusting the extension depth of a door panel hinge. Methods disclosed herein also may include applying a preloading force to the cart frame, to reduce tolerances between components of the storage cart once assembled. Kits are also provided herein containing the components required to assemble the cart on-site, in configurations that may be easily transported to and from the job site when disassembled. Kits also may provide for straightforward and secure assembly of the carts.

A management system comprises a body including an opening/closing door; a first terminal that is located inside the body, measures environment information inside the body, and generates first data on the basis of the measured environment information; a second terminal that is located outside the body, generates second data including state information of the opening/closing door, and generates third data on the basis of the first data and the second data; and a server that generates a signal including risk coefficient information indicating a contamination level inside the body on the basis of the third data, and transmits the signal to a user terminal.

The present disclosure provides a feeding container device, including a bottle body having a bottle inner cavity, a first cover body at least partially disposed inside the bottle inner cavity and fixedly connected to the bottle body, a second cover body at least partially disposed inside the bottle inner cavity and having a cover inner cavity, a sealing ring disposed inside the bottle inner cavity and blocking the cover inner cavity, and a feeding device fixedly connected to the second cover body, the second cover body is mounted to the bottle body, the sealing ring is detachably connected to the second cover body and abuts the first cover body; when the second cover body moves away from the bottle body, the first cover body causes the sealing ring to separate from the second cover body, and the first sealed chamber communicates with the second sealed chamber.

A monitoring apparatus is for an internodal transport container. A proximity sensor is mounted to a door actuator and to a door or container panel. A tamper-evident local circuit with a processor detects relative movement of the actuator and the panel. A transmitter transmits an alert radiation signal with an alert of if there is movement of the actuator indicating opening of a container door or tampering with the apparatus. The sensor has a first component for mounting to an internodal container locking bar, and a second component part of the local circuit 10 for mounting to a door panel. The first component in some examples snap fits to the bar and has a rotatable component which is retained by a retainer attached to a housing which is in turn attached to a container door. There is therefore no need to attach anything to the bar.

A transport container is provided. The transport container includes a body having a base, a cover, an opening, and at least one side wall all defining a cavity therebetween. The transport container also includes an electronic controller. The electronic controller is configured to determine a geographic route from a carrier destination location to a destination location based on received carrier transfer information and received transportation information. The electronic controller is also configured to display the carrier transfer information on a user interface when the transport container is located at a carrier initial location. The electronic controller is further configured to deploy the transport container when the transport container is located at the carrier initial location.