Abstract: A load-bearing frame structure for a maritime vehicle includes two support plates, a deck plate structure, a front bulkhead structure, and a back bulkhead structure. Each of the support plates has a front edge, a back edge, a top edge, and a bottom edge. The support plates can be angled relative to each other and connected to each other at the top edges thereof forming an inverted V-shape. The support plates can alternately be parallel to each other in a vertical orientation. The support plates each have one or more cut-out sections. The deck plate structure connects the two support plates proximate the bottom edges of the support plates. The front bulkhead structure connects the front edges of the support plates, and the back bulkhead structure connects the back edges of the support plates.

Abstract: A load-bearing frame structure for a maritime vehicle includes two support plates, a deck plate structure, a front bulkhead structure, and a back bulkhead structure. Each of the support plates has a front edge, a back edge, a top edge, and a bottom edge. The support plates can be angled relative to each other and connected to each other at the top edges thereof forming an inverted V-shape. The support plates can alternately be parallel to each other in a vertical orientation. The support plates each have one or more cut-out sections. The deck plate structure connects the two support plates proximate the bottom edges of the support plates. The front bulkhead structure connects the front edges of the support plates, and the back bulkhead structure connects the back edges of the support plates.

Abstract: Means and methods for optimizing the utilization of monorail-based vehicles carrying a work-in-progress in a clean manufacturing environment. The method includes increasing the number of pick up and drop off points on a primary or secondary monorail transportation network, to amplify the number and frequency of pick up and drop off events per vehicle per circumnavigation of the network or loop. By increasing the number of pick up and drop off events, the empty run or idle time of the corresponding vehicle will decrease, improving utilization and throughput.

Abstract: Means and methods for optimizing the utilization of monorail-based vehicles carrying a work-in-progress in a clean manufacturing environment. The method includes increasing the number of pick up and drop off points on a primary or secondary monorail transportation network, to amplify the number and frequency of pick up and drop off events per vehicle per circumnavigation of the network or loop. By increasing the number of pick up and drop off events, the empty run or idle time of the corresponding vehicle will decrease, improving utilization and throughput.