Abstract: A control system acquires predicted tsunami information, and generates a flight plan for unmanned aerial vehicles. The flight plan includes flight paths along safety boundaries between an expected damage area and a safe area. The expected damage is an area expected to be damaged by the tsunami indicated by the predicted tsunami information. The safe area is an area to be safe from damage caused by the tsunami. The control system transmits the flight plan to the unmanned aerial vehicles.

Abstract: A distribution system, an information processing device, and a method that can manage a last time at which a human touched an article prior to the article being received, or can manage an amount of elapsed time from that last time. The distribution system 1 includes a first distribution mechanism 10 that includes a first transporter 11 that transports an article to a destination of the article. The distribution system 1 also includes a manager that manages a first time that is a time earlier than a receiving time at which the article transported by the first transporter 11 is received and that is a last time at which a human contacted the article, or manages a first amount of elapsed time that is an amount of elapsed time from the first time.

Abstract: To improve utilization efficiency of a delivery port and an unmanned aerial vehicle (UAV), a delivery port management system includes obtaining means for obtaining a delivery destination of a package that is transported by a UAV approaching a facility having a plurality of delivery ports and a plurality of delivery destinations, the delivery ports receiving packages, port selecting means for selecting a delivery port to which the UAV delivers the package among the plurality of delivery ports based on the delivery destination of the package after the UAV has departed for the facility, and guiding means for sending information for guiding the UAV to the selected delivery port.

Abstract: A logistics system, comprising: an unmanned aerial vehicle including: a holder configured to hold a package to which a readable medium including package identification information is attached; and a reader configured to read the readable medium when the package is held by the holder; and at least one processor configured to: generate, after the readable medium is read by the reader, flight plan information on the unmanned aerial vehicle based or information read from the readable medium; and control the unmanned aerial vehicle based on the flight plan information.

Abstract: A control device (500) includes a selector (550) that selects one of a first vehicle and a second vehicle as a remaining vehicle that stores a first article and a second article and that remains at a receiving location where the first article and the second article are to be received, and selects another of the first vehicle and the second vehicle as a departing vehicle that departs from the receiving location, when the second vehicle storing the second article arrives at the receiving location while the first vehicle storing the first article stays at the receiving location. Additionally, the control device (500) includes a storage controller (560) that identifies the first article or the second article stored in the selected departing vehicle as a transfer article to be transferred from the departing vehicle to the remaining vehicle, and causes the identified transfer article to be stored in the remaining vehicle.

Abstract: Information processing system S acquires sensing data obtained through sensing downward from the sky by an UAV 1 flying in a specific zone, and identifies flood-damaged area where flood damage has occurred in the specific zone on the basis of the acquired sensing data.

Abstract: An operation guidance corresponding to a user is output. A server (10) of a logistics management system (1) sets, based on user setting information associated with users, an output mode of an operation guidance that is output by an unmanned ground vehicle (30) that carries a package, generates a notification code for a package subject to carrying, associates the generated notification code with a user who picks up or deposits the package, sends the generated notification code to a user device used by the user, obtains an authentication code which includes the notification code and which the user has entered into the unmanned vehicle (30), specifies, based on the notification code included in the obtained authentication code, the output mode of the operation guidance corresponding to the user who has entered the authentication code, causes the unmanned vehicle (30) to output the operation guidance using the specified output mode.

Abstract: A logistics management system includes a memory that stores operation record information indicating a record of each of users operating an unmanned vehicle and a circuitry. The circuitry is configured to specify, when the unmanned vehicle moves on a carrying route that includes carrying points, a user who operates the unmanned vehicle at each of the carrying points, obtain the operation record information corresponding to the specified user, and specify, based on the operation record information, an estimated operation time for each of the users to operate the unmanned vehicle and determine a carrying sequence using the estimated operation time. The carrying sequence is a sequence in which the unmanned vehicle moves between the carrying points on the carrying route.

Abstract: A control device (100) includes an acquirer (110) that acquires transport article information expressing a characteristic of an article to be transported, and a generator (130) that generates, on the basis of the characteristic expressed in the acquired transport article information, transport control information that causes an unmanned vehicle to transport the article.

Abstract: The control unit 16 of the UAV 1 detects the UAV 50 as a search target on the basis of the sensing data obtained by sensing of the sensor unit 14, and moves the UAV 1 to a position above the detected UAV 50. Then, the control unit 16 identifies a current position of the UAV 1 when the UAV 1 has moved to the position above the UAV 50, and transmits search position information indicating the identified current position as the current position of the UAV 50.

Abstract: An unmanned aerial vehicle according to an aspect of the present invention includes: an aerial vehicle body capable of flying; a winding machine provided to the aerial vehicle body and capable of winding and unwinding a linear member an end of which is connectable to a delivery target; and a fall prevention mechanism provided to the aerial vehicle body and capable of holding the delivery target disconnected from the linear member.

Abstract: An UAV 1 performs a detachment control to detach a cargo supported by a support portion 117 or connected a connecting portion 118, and thereafter, performs a load detection process of detecting a mechanical load applied to the support portion 117 or the connecting portion 118. And then An UAV 1 performs different control according to the mechanical load, with respect to a movement of the UAV 1 after the detection of the mechanical load.

Abstract: A control device (100) controls a delivery vehicle and includes a first determiner (120) that determines a point (i) by using each of a plurality of shipping locations as a reference and (ii) on the basis of a preparation time from when a shipping request is accepted until when shipment becomes possible at each of the plurality of shipping locations. Additionally, the control device (100) includes a controller (130) that allows the delivery vehicle to accept a shipping location of a package or a delivery destination of the package as a movement destination so as to set a state of the delivery vehicle to a state of accepting the movement destination, moves the delivery vehicle to the movement destination when the state of the delivery vehicle is the state of accepting the movement destination, and moves the delivery vehicle toward the point when the state of the delivery vehicle is a state of not accepting the movement destination.

Abstract: A delivery control system includes a determination unit that uses receiving position determining information to determine a common receiving position for a delivery address of an item of a first user and a delivery address of an item of a second user and a movement control unit that causes a delivery machine to move to the receiving position. The delivery machine is loaded with an item indicated by order information related to an order of the item.

Abstract: An unmanned aerial delivery vehicle acquires transfer position information indicating a position at time of package transfer of an unmanned ground delivery vehicle that receives a package in a case where a predetermined condition based on position information of the unmanned aerial delivery vehicle that transports a package is satisfied. A position of the unmanned ground delivery vehicle at the time of package transfer is identified by the unmanned aerial delivery vehicle. The unmanned ground delivery vehicle acquires delivery destination information of the package transported by the unmanned aerial delivery vehicle.

Abstract: A control device (100) controls a locker that includes a storage unit that stores an article. Additionally, the control device (100) includes a forbidder (160) that forbids unlocking of the storage unit in at least one of a case in which content associated with the article has not been watched, a case in which the content has not been listened to, or a case in which the content has neither been watched nor listened to by a user that performs an operation for unlocking the storage unit.

Abstract: A delivery system S performs authenticating process of authenticating at least any one of an UGV 1 and an article delivered by the UGV 1 in a case where the UGV 1 arrives at a delivery destination, and performs opening/closing control of a first carry-in port from which the article is carried in at the delivery destination on the basis of the authentication result of the UGV 1 or the article delivered by the UGV 1.

Abstract: A control system includes at least one memory storing program code and at least one processor. The program code is configured to cause the at least one processor to estimate size of a short visibility airspace, based on a location of a first point at which an aircraft detects the short visibility airspace, a location of a second point at which the aircraft determines that the aircraft has entered the short visibility airspace, and sensing information acquired at the first point. The program code also causes the at least one processor to perform control to cause the aircraft to move to a safe airspace that is set based on the estimated size of the short visibility airspace when it is determined that flight continuation along a route passing through the short visibility airspace is impracticable.

Abstract: A control device (200) includes a ground vehicle controller (230) that causes a ground vehicle to travel at a target area, an acquirer (210) that acquires state information expressing a state of a surface of the target area while the ground vehicle travels the target area, and a determiner (240) that determines, based on the acquired state information, whether or not an aircraft is landable at the target area.

Abstract: The information processing device acquires load information of a load to be transported by UGV 1; acquires environmental information obtained by sensing an environment around the UGV by a sensor mounted on the UGV at a transport destination of the load; and determines a place where the load is placed by the UGV at the transport destination on the basis of the load information and the environmental information.