Abstract: The present invention provides a test strip having a first layer comprising a wicking member and a second layer comprising a capillary transfer plane member. The capillary transfer plane has a plurality of capillary transfer passages. The capillary transfer passages can comprise various shapes to control sample flow rate. Located above the capillary transfer passages are a plurality of testing members. The test strip can include a third layer next to the wicking member, the third layer comprising a backing member for providing support to the wicking member. Another aspect of the present invention provides a sample testing device, which includes a housing having a plurality of openings, and a test strip as described above, wherein a sample application area of the test strip is accessible through one of the openings in the housing, and each of the testing members is viewable through one of the openings of the housing.

Abstract: A security enclosure (20) for a control apparatus (22) is disclosed. The enclosure (20) is formed of a cage (28) connected to a base (30). Opposing mounting straps (36) partially embedded within the base (30) extend inside the cage (28) through strap engagement slots (58). The cage (28) has cage lock holes (72) that align with strap lock holes (70) in the mounting straps (36), and through which a lock device (74) is passed to secure the cage (28) to the mounting straps (36) and the base (30). The shackle (86) of a lock (88) is passed through a hole (82) in a movable lock tab (78) on the lock device (74) and a hole (84) in a fixed lock tab (80) affixed to the cage (28). When the lock (88) is closed, the lock device (74) is secured and the cage (28) cannot be removed from the base (30) without opening the lock (88). The lock (88) and the lock tabs (78,80) are protected by a shroud (90) affixed to the cage (28). End panels (26) and a perforated body panel (24) complete the cage (28).

Abstract: The present invention provides a test strip having a first layer comprising a wicking member and a second layer comprising a capillary transfer plane member. The capillary transfer plane has a plurality of capillary transfer passages. The capillary transfer passages can comprise a hole, channel, or other shape to control sample flow rate. Located above the one or more capillary transfer passages are a plurality of testing members. The test strip can include a third layer next to the wicking member, the third layer comprising a backing member for providing support to the wicking member. Another aspect of the present invention provides a sample testing device, which includes a housing having a plurality of openings, and a test strip as described above, wherein a sample application area of the test strip is accessible through one of the openings in the housing, and each of the testing members is viewable through one of the openings of the housing.

Abstract: The present invention provodes a test strip having a first layer comprising a wicking member and a second layer comprising a capillary transfer plane member. The capillary transfer plane has a plurality of capillary transfer passages. The capillary transfer passages can comprise a hole, channel, or other shape to control sample flow rate. Located above one or more of the capillary transfer passages are a plurality of testing members. The test strip can include a third layer next to the wiking member, the third layer comprising a backing member for providing support to the wicking member. Another aspect of the present invention provides a sample testing device, which includes a housing having a plurality of openings, and a test strip as described above, wherein a sample application area of the test strip is accessible through one of the openings in the housing, and each of the testing members is viewable through one of the openings of the housing.

Abstract: The present invention provides a test strip having a first layer comprising a wicking member and a second layer comprising a capillary transfer plane member. The capillary transfer plane has a plurality of capillary transfer passages. The capillary transfer passages can comprise various shapes to control sample flow rate. Located above one or more of the capillary transfer passages are a plurality of test strips. Another aspect of the present invention provides a sample testing device, which includes a housing having a one or more openings, and a test strip as described above, wherein a sample application area of the test strip is accessible through one of the openings in the housing, and each of the testing members is viewable through one of the openings of the housing.

Abstract: An improved method and system for initializing the logical units (LUs) in a Gateway between an SNA network having a mainframe host computer and another network. An activation procedure derives the Table of Boundary LUs on the mainframe host computer by noting the device logical unit numbers within the set of ‘Activate Logical Unit’ (ACTLU) SNA Request Units. If the mainframe host computer includes an LU in its Table of Boundary LUs, then the activation procedure creates a corresponding LU in the Gateway. The activation procedure also marks each of the created LUs in the Gateway as active. The newly created LUs are then added to the resource pool of LUs available to the network. Additional aspects include a method for assigning a logical unit type to an LU based upon whether a Bind request is received from the mainframe host computer within a certain amount of time after sending a positive sense code to the mainframe host computer.

Abstract: An improved method and system for initializing the logical units (LUs) in a Gateway between an SNA network having a mainframe host computer and another network. An activation procedure derives the Table of Boundary LUs on the mainframe host computer by noting the device logical unit numbers within the set of ‘Activate Logical Unit’ (ACTLU) SNA Request Units. If the mainframe host computer includes an LU in its Table of Boundary LUs, then the activation procedure creates a corresponding LU in the Gateway. The activation procedure also marks each of the created LUs in the Gateway as active. The newly created LUs are then added to the resource pool of LUs available to the network.

Abstract: An improved method and system for initializing the logical units (LUs) in a Gateway between an SNA network having a mainframe host computer and another network. An activation procedure derives the Table of Boundary LUs on the mainframe host computer by noting the device logical unit numbers within the set of ‘Activate Logical Unit’ (ACTLU) SNA Request Units. If the mainframe host computer includes an LU in its Table of Boundary LUs, then the activation procedure creates a corresponding LU in the Gateway. The activation procedure also marks each of the created LUs in the Gateway as active. The newly created LUs are then added to the resource pool of LUs available to the network. Additional aspects include a method for assigning a logical unit type to an LU based upon whether a Bind request is received from the mainframe host computer within a certain amount of time after sending a positive sense code to the mainframe host computer.