A mountable bracket includes a first leg and a second leg configured to be coupled to a mounting surface, a first sub-leg coupled to the first leg, and a second sub-leg coupled to the second leg. The first leg projects from the mounting surface to define a first engagement surface. The first sub-leg projects from the first leg to define a second engagement surface. The second leg projects from the mounting surface to define a third engagement surface. The second sub-leg projects from the second leg to define a fourth engagement surface. The second engagement surface and the first engagement surface form a first mounting rail having a first rail width. The fourth engagement surface and the third engagement surface form a second mounting rail having the first rail width. The first engagement surface and the third engagement surface form a third mounting rail having a second rail width.

A foldable storage container is implemented which is configured with a lockable door that can be accessed with a key code. The door of the container includes a deadbolt which engages with a receptacle on the frame of the container, which unlocks responsive to receiving a correct key code. In addition, hinges are placed on all four sides of the rear panel and the front panel to enable folding of the container. The top and bottom sets of panels advance upwardly and downwardly, respectively, and the left and right sets of panels push inward into the container's cavity. This compresses the container so that it can be carried and transported more easily, such as through doorways. The foldablility of the container enables the container to accept larger-sized packages while still being dynamically adaptable to fit in doorways to, for example, bring the foldable storage container indoors after use.

A system for transporting goods, includes a transport container for holding goods, a driverless transport vehicle for transporting the transport container, and a transfer station, on which the transport container is positionable. The transport container includes a locking device, which is lockable to a first locking unit of the driverless transport vehicle, and to a second locking unit of the transfer station. In a method for transporting goods: the locking device of the transport container is locked to the first locking unit; the transport container is transported by the driverless transport vehicle to the transfer station; the locking device of the transport container is unlocked from the first locking unit; and the locking device of the transport container is locked to the second locking unit.

Securing systems and methods of securing a transport container to an attachment point. In one embodiment, the securing system includes an actuator, an attachment structure, and an electronic controller. The attachment structure is dimensioned to complement the actuator. The electronic controller is operably coupled to the actuator for attaching and releasing the actuator to the attachment structure.

The present invention relates generally to a new and improved package receptacle for receiving one or more delivered parcels or packages. The receptacle is comprised of a gas-piston supported lid, a cable that allows the receptacle to be secured to a structure, a lock that allows only authorized users to access the contents of the package receptacle and a plurality of anti-theft mechanisms. The package receptacle is easily collapsible for easy transportation between locations.

Exemplary embodiments relate to an apparatus comprising a receiving device (200) configured to receive a package (1) delivered via an airborne drone (100). The receiving device (200) includes a receptacle (201), an optical scanner (208), a transceiver (207), and at least one light emitter (204) in operative connection with a computer (203). The optical scanner (208) is operative to read optical indicia that includes a delivery code. The transceiver (207) is operative to receive a signal that includes a verification code and an encrypted one time code from the drone (100). If the verification code has a predetermined relationship with the delivery information, the computer (203) is operative to decrypt the one time code and to transmit an encrypted optical signal through the at least one light emitter (204) whereby the drone (100) is enabled to identify the receiving device (200) and to position the package (1) therein.

Package-receiving-lockers (PRLs) may have a collapsible-locker portion and door-attachment-structure. PRLs may exist in a substantially collapsed configuration for storing the given PRL or for otherwise minimizing a footprint of the given PRL; and these PRLs may exist in a substantially deployed (expanded) configuration for acting as a secure object storage location. Regardless of configuration (deployed or collapsed), PRLs may be removably attached to side-hinged-doors with the door-attachment-structure, in such a way so as not to impair operation of the given door. The PRLs may have various electronics for facilitating access (e.g., locking and unlocking the collapsible-locker), delivery confirmation, and mitigating theft. These electronics, along with specialized software, may allow an intended recipient (e.g., a buyer), a shipper/delivery person (or shipping/deliver robot), and/or a seller/vendor to access the PRL in a controlled and documented manner. At least some of these electronics may be in wireless communications with other electronic devices.

Disclosed herein are methods and systems for providing a smart mailbox device comprising a touch screen user interface display; a smart doorbell notification interface; a smart camera apparatus; an axle member; a computing device having capabilities including at least of: wireless communication, location tracking, cloud computing, remote access, device management, and computing functions; a secure attachment member; a retractable bag configured to: retract a receptacle as a package carrier approaches the smart mailbox device, receive at least one package, secure the at least one package; and a retractable security band configured to: retract for attachment to at least one package above a retractable bag threshold size, adhere and secure to at least one package above a retractable bag threshold size.

A security container configured to be releasably secured to a structure wherein the security container is movable between a stored position and a deployed position. In the deployed position the security container is operable to receive packages or similar objects. The security container includes a rear wall, a front wall, a bottom panel and sidewalls that are movably coupled in order to provide transition between the stored position and the deployed position. A top panel member is further provided to provide covering of the opening of the security container 100 in its deployed position. A communications module is further includes having elements such a motion sensor, a camera and a microphone wherein the communications module provides remote operation of the security container 100. An alarm module and weight sensors are further included and the security container 100 can be secured to the structure utilizing alternate embodiments of the securing member.

A collapsible security container is disclosed. The collapsible security container comprises a collapsible box and a hinged-lid connected to the collapsible box. The collapsible box comprises a bottom panel: a front panel, a left side panel, a right side panel and a back panel connected to the bottom panel by fold lines along respective edges of the bottom panel, wherein the bottom panel, front panel, left side panel, right side panel and back panel define an interior compartment. A locking system secures the hinged-lid to the collapsible box. A strap is attached to the collapsible box. The strap has an attachment end that is attached to the collapsible box and a free end that terminates in a fastener or stopper for securing the security container about or to a structure such as a door or wall.