Abstract: Apparatus (2) for wrapping a load (18) placed on a turntable (4) having a mast assembly (8), a carriage assembly (12) adapted for vertical slideable movement along said mast assembly (8) and dispensing means (13) for dispensing tape material (80). The tape material (80) is transferred from the dispensing means (13) in response to rotation of the turntable (4) such that the tape material (80) wraps around the load (18) in a predefined pattern. The carriage assembly (12) and turntable (4) are configured for automated movement in response to a computer program stored in memory means (306) to enable wrapping of the load (18) with the tape material (80) in the predefined pattern. The carriage assembly (12) is positioned along the mast assembly (8) under control of the computer program in accordance with a rotational position of the load (18) to locate the tape material (80) at locations on the load (18). A pretensioning apparatus is also disclosed for pretensioning the tape material (80).

Abstract: Apparatus (2) for wrapping a load (18) placed on a turntable (4) having a mast assembly (8), a carriage assembly (12) adapted for vertical slideable movement along said mast assembly (8) and dispensing means (13) for dispensing tape material (80). The tape material (80) is transferred from the dispensing means (13) in response to rotation of the turntable (4) such that the tape material (80) wraps around the load (18) in a predefined pattern. The carriage assembly (12) and turntable (4) are configured for automated movement in response to a computer program stored in memory means (306) to enable wrapping of the load (18) with the tape material (80) in the predefined pattern. The carriage assembly (12) is positioned along the mast assembly (8) under control of the computer program in accordance with a rotational position of the load (18) to locate the tape material (80) at locations on the load (18). A pretensioning apparatus is also disclosed for pretensioning the tape material (80).

Abstract: A conveyer system for receiving, orienting and conveying pouches is disclosed. The conveyor system includes a plurality of pucks, each puck having a lower extent with a recess extending upwardly from the lower surface thereof and having an upstanding cylindrical wall. An indexing conveyer includes a belt in a closed loop configuration supported by an idler roller at one end and with a drive roller at the other end with a motor to drive the rollers and belt in a step and repeat operation. The exterior surface of the belt is formed with a plurality of plates with a cleat on each plate to receive the recesses of a plurality of pucks thereacross. An infeed conveyer has a spine alignable with the cleat at the input end of the indexing conveyor adapted to receive and orient pucks from the infeed conveyer to the indexing conveyer. The infeed conveyer has an input end and an output end, the output end being located adjacent to the input end of the indexing conveyer.

Abstract: A method for simulating RF energy distribution comprises obtaining a binary tree representation of a geometric environment in three-dimensions and forming a 3-D geometric database model therefrom, obtaining one or more specified receive locations within the 3-D geometric database model where RF energy distribution is desirable, simulating the propagation of an RF signal within the geometric database model, the RF signal being represented as a beam having magnitude and direction, the propagation including querying the database model to trace the beam in the geometric environment; and, determining one or more intersections of the traced beam with one or more receive locations to determine RF energy distribution at the receive locations.