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The goal of Multi-Protocol on ATM (MPOA) is the efficient transfer of inter-subnet unicast data in a LAN Emulation (LANE) environment MPOA integrates LANE and Next Hop Resolution Protocols (NHRP), also known as Next Hop Routing Protocols, to preserve the benefits of LANE while allowing inter-subnet, internetwork layer protocol communication over ATM Virtual Circuit Connections (VCCs) without requiring routers in the data path MPOA provides a framework for effectively synthesizing bridging and routing with ATM in an environment of diverse protocols, network technologies, and IEEE 8021 Virtual LANs This is designed to provide a unified paradigm for overlaying internetwork layer protocols on ATM MPOA is capable of using both routing and bridging information to locate the optimal exit from the ATM cloud MPOA allows the physical separation of internetwork layer route calculation and forwarding, a technique known as virtual routing This separation provides a number of key benefits:

Titanium is finding more use in combat robots Though heavier than aluminum at a ratio of 17:1, it does not really compare with aluminum or any other metal, for that matter Long used by the military for lightweight armor and jet engine parts, it is finding uses for consumer applications such as combat robots It melts at a temperature of almost 1000 degrees Celsius higher than aluminum, and can withstand deformation and bending much better than that alloy or most steels Its main drawback is its extremely high cost and difficulty to machine and form, but it is becoming more popular for so many uses that the cost is dropping rapidly Titanium alloy 6AL-4V is a general-purpose, high-strength metal that is available in round bars and flat sheets As with all titanium alloys, it requires patience in machining Ample lubricant and slow feed speeds are necessary The 40,000 psi yield strength alloy is an easier-to-machine alloy Each can be found in lengths of 3 and 6 feet, and diameters from 1/8 to 2-1/2 inches

dimension members of both predefined and user-defined dimensions The rest of this section will describe how a user-defined dimension member property can be created The first step in creating a user-defined dimension member property in any dimension is to check out that dimension You can be check out a dimension by clicking on it in the Dimension Workspace, and then clicking the Check Out link in the Dimension Tasks pane on the right side Once a dimension is checked out, it will appear similar to the newly created Employee dimension shown in Figure 7-16 Please note that in this example we have not yet saved or checked in our newly created Employee dimension from our previous example We will be using this example to create the new user-defined dimension member property If the dimension has been checked in, it has to be checked out as was just described From the Dimension Tasks pane on the right side, click the link Create a Member Property This will open the Create Member Property dialog box, as shown in Figure 7-17 The various aspects of the dimension member property are defined in this dialog box The value Entity is entered in the text boxes titled Label and Description for the purpose of the examples in this chapter The next step is to select the type of data that the dimension member property will contain The various available data types are listed in the drop-down list titled Data Types Most of the data types listed here are self explanatory, with the exception of Member of Dimension data type This data type allows you to create referential relationships among dimensions, by allowing you to select a member belonging to another referenced dimension as the member property for the referencing dimension For the purpose of the examples in this chapter, the Member of Dimension data type is.

It allows efficient inter-subnet communication It increases manageability by decreasing the number of devices that must be configured to perform internetwork layer route calculation It increases scalability by reducing the number of devices participating in internetwork layer route calculation It reduces the complexity of edge devices by eliminating the need to perform internetwork layer route calculation