Abstract: Systems and methods for controlling onboard power and communication systems at an automated locker are provided. An example method can include: autonomously detecting a status of a primary power supply connected to the locker, a communication status between the locker and a central server, an internal server status, and an onboard battery percentage of an onboard power; when the onboard battery percentage is greater than or equal to the predetermined battery percentage, autonomously switching to the onboard power and requesting the internal server to conduct transactions and store transaction data internally; and when the battery percentage of the onboard power is lower than the predetermined battery percentage, shutting down the locker; and when the primary power supply is detected to be reestablished and the locker is in communication with the central server, autonomously requesting the internal server to upload the transaction data to the central server.

Abstract: Systems, methods, and computer-readable storage media for an automated kiosk which responds to natural disasters. Such a system can: receive, at a processor in an automated kiosk, an electronic weather report for weather associated with a geographic location of the automated kiosk; receive, from an exterior sensor mounted on the automated kiosk, exterior sensor data; and receive, from an interior sensor mounted inside the automated kiosk, interior sensor data. The system can then identify, via the processor and based on at least one of the electronic weather report, the exterior sensor data, and the interior sensor data, a likelihood of a natural disaster affecting the automated kiosk. The system can initiate actions to protect the kiosk and/or the products stored in the kiosk from the natural disaster, based on the likelihood and the type of threat encountered.

Abstract: A check-in system for an automated tower includes a computing device having an application installed thereon. The computing device is configured to check in a customer to notify the automated tower of a time range during which an order of the customer is picked up. The automated tower is configured to: receive a check-in message from the computing device; receive the location of the computing device; receive a message indicative of the arrival of the customer at the automated tower; retrieve information of the order from an order database stored on a remote server; assemble the order based on the check-in message and the information of the order; and move the assembled order close to a pick-up location of the automated tower to facilitate pick-up of the assembled order.

Abstract: Systems, methods, and computer-readable storage media for an automated kiosk which responds to natural disasters. Such a system can: receive, at a processor in an automated kiosk, an electronic weather report for weather associated with a geographic location of the automated kiosk; receive, from an exterior sensor mounted on the automated kiosk, exterior sensor data; and receive, from an interior sensor mounted inside the automated kiosk, interior sensor data. The system can then identify, via the processor and based on at least one of the electronic weather report, the exterior sensor data, and the interior sensor data, a likelihood of a natural disaster affecting the automated kiosk. The system can initiate actions to protect the kiosk and/or the products stored in the kiosk from the natural disaster, based on the likelihood and the type of threat encountered.

Abstract: A method for an on-site purchase at an automated storage and retrieval system (ASRS) can include: analyzing likely impulse purchases for customers during a given season, the likely impulse purchases being associated with each customer's profile which comprises preferences, purchase history and search history; stocking items for customers to purchase and pick up at the ASRS, the stocked items comprising general and seasonal items, and supplementary items selected based on an analysis of the likely impulse purchases; receiving a customer's order for purchasing an item; detecting a customer's arrival within a predetermined area around the ASRS; offering a subset of the stocked items for the customer to add to the order, updating the order based on customer's purchase selections or declines; completing a payment transaction of the updated order; automatically updating the items for inclusion in the ASRS based on the customer purchase selections or declines.

Abstract: Systems and methods for controlling onboard power and communication systems at an automated locker are provided. An example method can include: autonomously detecting a status of a primary power supply connected to the locker, a communication status between the locker and a central server, an internal server status, and an onboard battery percentage of an onboard power; when the onboard battery percentage is greater than or equal to the predetermined battery percentage, autonomously switching to the onboard power and requesting the internal server to conduct transactions and store transaction data internally; and when the battery percentage of the onboard power is lower than the predetermined battery percentage, shutting down the locker; and when the primary power supply is detected to be reestablished and the locker is in communication with the central server, autonomously requesting the internal server to upload the transaction data to the central server.

Abstract: An example security system for an automated locker that stores and dispenses customer orders, include the automated locker including a plurality of sensors and a central computer in communication with the plurality sensors. The plurality sensors can include: at least one smoke detector, at least one camera, at least one sniffer, at least one shock sensor, at least one flood sensor, at least one wind sensor, and at least one fire sensor. The security system may also include a remote server configured to receive sensitive data that is encrypted and/or erased from the central computer upon detecting a hack on the central computer.

Abstract: A system and a method for protecting a user from potentially falling unmanned aerial vehicle (UAV) or package or both are described herein. The system includes a base structure; and a roof structure attached to and extending from the base structure. The base structure is configured to support the roof structure. The roof structure is configured to support a weight of the UAV and package. The roof structure is configured to shield or protect a user from potentially falling UAV or package or both when the user is under the roof structure.