Abstract: A method for managing a distribution facility may include a step of receiving descriptions of multiple orders from an order-management subsystem. A determination may be made that a particular order among the multiple orders is currently fillable, based the descriptions from the order-management subsystem. In response, shipping rate information may be obtained by automatically communicating with a rate subsystem. The particular order may be automatically assigned to a carrier, based on the information from the rate subsystem. In response, a transportation subsystem may automatically be caused to transport items for the particular order to one or more distribution stations.

Abstract: A method for preparing items for shipment in a distribution facility with multiple pallet-build squares may include a step of identifying an available pallet-build square among the multiple pallet-build squares. An item may then be transported to an operator for the available pallet-build square. Item data from a scan of a barcode on the item may then be received, and in response, a display may be automatically updated to identify the available pallet for the operator.

Abstract: A method for managing a distribution facility may include a step of receiving descriptions of multiple orders from an order-management subsystem. A determination may be made that a particular order among the multiple orders is currently fillable, based the descriptions from the order-management subsystem. In response, shipping rate information may be obtained by automatically communicating with a rate subsystem. The particular order may be automatically assigned to a carrier, based on the information from the rate subsystem. In response, a transportation subsystem may automatically be caused to transport items for the particular order to one or more distribution stations.

Abstract: A method for preparing items for shipment in a distribution facility with multiple pallet-build squares may include a step of identifying an available pallet-build square among the multiple pallet-build squares. An item may then be transported to an operator for the available pallet-build square. Item data from a scan of a barcode on the item may then be received, and in response, a display may be automatically updated to identify the available pallet for the operator.

Abstract: The CEBUS protocol is employed in an automatic meter reading (AMR) fixed network RF system while maintaining commonality and compliance with other CEBUS equipment. The AMR system comprises a plurality of utility meters, each meter comprising a radio frequency (RF) module for transmitting and receiving RF CEBUS message packets in accordance with a prescribed CEBUS protocol, wherein the CEBUS message packets contain embedded AMR message packets in accordance with a prescribed AMR protocol. In addition, the system includes a node(s) for accessing data stored by any one or a group of the utility meters via RF communications using the CEBUS protocol.

Abstract: A repeater communications module (RCM) that enhances signals in a communications network comprises a processor coupled to a communications medium and optionally to a host application. The RCM operates in one of two modes: (1) interface or host application controlled, and (2) standalone. In the interface mode, the RCM receives packets from a host application, modifies the packets and transmits message packets in accordance with a transmit role table (TRT). In standalone mode, the RCM initiates packets and transmits message packets in accordance with the TRT. All RCMs can be configured to repeat message packets which are received from the communications medium in accordance with a repeater role table (RRT).

Abstract: A solid state electrical meter incorporates the ability to support two-way radio, dialback telephone and CEBus personal LAN. These three communications media require different protocols to meet their respective requirements. Embedding multiple protocols within the meter controller makes the device extremely flexible for current and future applications.

Abstract: A cage for arboreal animals includes two compartments, each having a hinged, latched, door. The two compartments are separated by a sliding panel to enable maintenance to be performed easily and safely, minimizing unwanted contact between hazardous animals, such as venomous snakes, for example, and the investigators or maintenance personnel. The structure is further ventilated to provide air flow from bottom to top, and could maintain a humidity level in accordance with needs of caged animals. The sides of the cage are transparent to permit simple monitoring of the reptiles as well as to meet the social needs of those animals which need visual contact with other animals in adjacent cages. This cage meets or exceeds all current Federal principles and regulations for animal housing units.