초록 ▼

A support structure has a number of posts with flanges and slots formed in the flanges. The support structure also has a number of aprons with end tabs that are inserted into respective post flange slots. A gap defined by the apron end tabs and an edge of the apron creates an interference fit with a

A support structure has a number of posts with flanges and slots formed in the flanges. The support structure also has a number of aprons with end tabs that are inserted into respective post flange slots. A gap defined by the apron end tabs and an edge of the apron creates an interference fit with a slot lip of the flange slot. The disclosed interlock of the aprons to the posts creates a stable support structure that has aesthetic value. The disclosed interlock further provides the capability of creating various support structures (e.g., shelving assemblies, workbenches, cabinets, storage assemblies).

대표청구항 ▼

A support structure has a number of posts with flanges and slots formed in the flanges. The support structure also has a number of aprons with end tabs that are inserted into respective post flange slots. A gap defined by the apron end tabs and an edge of the apron creates an interference fit with a

A support structure has a number of posts with flanges and slots formed in the flanges. The support structure also has a number of aprons with end tabs that are inserted into respective post flange slots. A gap defined by the apron end tabs and an edge of the apron creates an interference fit with a slot lip of the flange slot. The disclosed interlock of the aprons to the posts creates a stable support structure that has aesthetic value. The disclosed interlock further provides the capability of creating various support structures (e.g., shelving assemblies, workbenches, cabinets, storage assemblies). nterdiction sequence which controls cutting rate and limits an impact area of said fluid jet. 10. The method according to claim 1, further comprising the step of utilizing an autonomous mobile unit as the hazardous duty robot which can be deployed to a location of said suspect hazardous device and which autonomous mobile unit includes a pre-programmed cutting nozzle pattern program. 11. The method according to claim 1, further comprising the step of pressurizing said low pressure hydro-solution to include 50,000 lbs. per square inch. 12. A method for remotely accessing packages suspect of containing hazardous devices, the method comprising the steps of: supplying a low pressure hydra-solution from a supply reservoir to an intensifier for pressurization to a high pressure hydro-solution; aspirating said high pressure hydra-solution from said intensifier with abrasive particles via a mixing chamber forming a high pressure abrasive solution; directing said high pressure abrasive solution through an appropriately sized orifice forming a high velocity continuous stream flow field; focusing said high velocity continuous stream flow field at a controlled speed and impact area below impact initiation threshold towards a suspect hazardous device, and further comprising the step of pressurizing said low pressure hydro-solution to include 50,000 lbs. per square inch. 13. A method for remotely accessing packages suspect of containing hazardous devices, the method comprising the steps of: supplying a low pressure hydra-solution from a supply reservoir to an intensifier for pressurization to a high pressure hydro-solution; aspirating said high pressure hydro-solution from said intensifier with abrasive particles via a mixing chamber forming a high pressure abrasive solution; directing said high pressure abrasive solution through an appropriately sized orifice forming a high velocity continuous stream flow field; focusing said high velocity continuous stream flow field at a controlled speed and impact area below impact initiation threshold towards a suspect hazardous device, and further comprising the step of mounting said cutting nozzle on a hazardous duty robot for remotely directing said high velocity continuous stream flow field, and providing high pressure fluid from said intensifier to said cutting nozzle via a coilable high pressure hose and feeding abrasive to said cutting nozzle from a separate abrasive source, for mixing wit fluid traveling within said cutting nozzle. 14. A method for remotely accessing an abject suspect as containing hazardous material including moving a robot, with a fluid jet cutting nozzle in fluid communication with a high pressure fluid source via a flexible high pressure hose and, in communication with a separate source of abrasive feeding into the nozzle, into a position relative to the object and breaching an exterior surface of said a aspect object with a continuous stream of a high pressure hydroabrasive solution capable of disrupting an initiating system while not presenting sufficient stimuli to initiate contents of said suspect object. 15. The method according to claim 14, further comprising the step of adding abrasive particles to said high pressure solution from a chamber source supported by said robot. 16. The method according to claim 14, further comprising the step of intensifying said continuous stream of high pressure solution by utilizing an intensifier which is connected with said flexible hose. 17. The method according to claim 14, further comprising the step of operating the robot in-situ as a remotely operated vehicle. 18. An apparatus for remotely accessing packages suspect of containing hazardous devices comprising: a fluid supply reservoir containing fluid at a low pressure; a pump to transfer said low pressure fluid from said fluid supply reservoir to an intensifier; said intensifier supplying an output of regulated pressurized fluid; a remote hazardous duty robot