Abstract: Transportation system with guides for guided transportation vehicles, wherein the transportation vehicles are supplied with electrical power via a contact line, wherein the transportation vehicles are also supplied with data from a control unit via the same contact line.

Abstract: An automated warehouse includes first and second stacked racks parallel to each other; first and second shipping-and-receiving stations placed at the same end of the stacked racks; transfer shuttles located between the stacked racks and between the shipping-and-receiving stations; elevator mechanisms equipped with first and second elevator platforms for receiving or transferring the packages to stand-by conveyors; and means for transferring the packages to and from the first and the second elevator platforms. The direction of motion of the stand-by conveyor of the first shipping-and-receiving station and the direction of the motion of the stand-by conveyor of the second shipping-and-receiving station, on the same level of stack, may be opposite; and the direction of motion of some of the stand-by conveyors pertaining to the first shipping-and-receiving station may be opposite to that of the rest of the stand-by conveyors of the first shipping-and-receiving station.

Abstract: A transferring shuttle, which transfers package(s) between a pair of layered stacked racks in a three dimensional automated warehouse, includes a mobile platform which runs between the stacked racks; elastic mechanisms, which include telescoping rails that extend into the stacked racks and surround a package; and terminal fingers placed at the ends of the rails, which can move between an extended position, which allows the package to be engaged and a contracted position. The rails also contain inner fingers between the terminal fingers. The inner fingers can push the package further into the stacked rack than previously possible.

Abstract: Method for providing transport units from a storage facility on at least one removal line, wherein the transport units are stored in a plurality of storage racks and storage rack levels, wherein interior storage racks are arranged in pairs adjoining one another and have a storage aisle on each side of the pair. At least one storage line and at least one removal line is provided. The transport units are placed into storage in, and removed from storage from, the storage rack via a storage and removal apparatus for each access aisle. For each access aisle, a storage and removal apparatus is provided. At least one removal lift is used to transfer the transport units to the removal line connected downstream thereof. A direct exchange of transport units takes place between two adjoining storage racks from one access aisle to an adjacent access aisle via transverse conveyance locations in the storage racks. The storage and removal apparatus moves the transport units in the transverse conveyance locations.

Abstract: A multi-tier automated warehouse includes first and second stacking racks having multiple tiers of shelves and being positioned facing one another in parallel; loading shuttles which are capable of horizontal travel between the stacking racks, and which carry out loading and unloading of cargo upon the shelves; and an elevator device for moving the loading shuttles to different tiers. The elevator device further includes masts which are positioned adjacent to the stacking racks; a shuttle elevator platform, which is positioned elevatably on the inner side of the masts, for elevating the loading shuttles; and cargo elevator platforms, which are positioned elevatably on the outer side of the masts, for elevating the cargo.

Abstract: An aisle emergency brake system for a vehicle that is adapted to travel on at least one rail includes a brake assembly and a stop assembly that are adapted to stop the vehicle when engaged with each other. If the brake assembly is mounted to the vehicle, the stop assembly is mounted to the rail, or vice versa. The brake assembly includes a pair of brake pads and a biasing mechanism. The brake pads are nominally spaced apart an operating distance and face each other in a facing direction. The biasing mechanism biases the brake pads toward each other to the operating distance. The stop assembly includes a body defining two surfaces. The two surfaces face outwardly and have stopping portions that are spaced apart more than the operating distance of the brake pads.

Abstract: The invention relates to an in-house track-bound transporting system with self-propelling carriages that move on rails. The system has stoppers to prevent said carriages from crossing over open rail ends or track borders, and the system is provided with stops. The stoppers collide with the stops in order to prevent a crossing-over, said stops having first and second fixed stop elements. The stoppers can be moved between a first crossing-over position and a second crossing-over position such that the first stop elements can be crossed over in the first crossing-over position of the stoppers, and the second stop elements can be crossed over in the second crossing-over position of the stoppers, wherein the first stop elements cannot be crossed over in the second crossing-over position of the stoppers, and the second stop elements cannot be crossed over in the first crossing-over position of the stoppers.

Abstract: A high-throughput performance automated storage/retrieval system is provided that has a large storage capacity and can reduce a facility cost and an installation space. An automated storage/retrieval system (10) according to the present invention is characterized in that two pairs of multi-tier racks (12L1, 12R1; 12L2, 12R2) are arranged in series, not in parallel, one elevator (16) is disposed between the two pairs of multi-tier racks, the only elevator enabling a load to delivered to and received from the two pairs of multi-tier racks. The automated storage/retrieval system having such a tandem structure not only can secure the same storage capacity as that of a conventional configuration in which two pairs of multi-tier racks are arranged in parallel, but also can be applied to a building with a height limit since the system does not need to be extended above.

Abstract: A telescoping mechanism and method of extending and retracting a telescoping mechanism includes a first arm that extends in a particular direction with respect to a base, a second arm that extends in that direction with respect to the first arm, a first drive assembly that extends and retracts the first arm, and a second drive assembly that extends and retracts the second arm. The first drive assembly includes a rotatable drum and a cable. The cable is wrapped at least one turn around the drum. The cable has a first portion attached to one end portion of the first arm and a second end portion to an opposite end portion of the first arm.

Abstract: A warehouse shuttle includes a chassis made up of first and second chassis portions and an article-carrying area between the chassis portions. Pairs of first and second running wheels are provided on the chassis to travel along the runway. One of a pair of arms is mounted to the first chassis portion and the other of the arms is mounted to the second chassis portion and are extendable and retractable to transfer an article between one of the shelves and the article-carrying area. A connector assembly connects the first and second chassis portions and can vary the spacing between the first and second chassis portions thereby varying the spacing between the arms to engage articles of different widths.