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Since 1992, two major developments have rolled into the carrier networks The first was the implementation and rollout of Frame relay networking protocols Frame Relay met with immediate success because of its ability to handle Wide Area Networking data traffic, replacing (or complementing) older X25 networks The network suppliers had to upgrade their equipment to support the newer protocols in their packet switches Although Frame Relay met with instant success, as described in 10 , it was introduced as a data-only service for the WAN The commitment to equipment and labor to upgrade the network became a very heavy burden As with most carriers, network equipment has traditionally been depreciated over a 20year period Thus, when Frame Relay began rolling into the marketplace in 1992, the depreciation window opened with an end-date of 2022 and counting Frame Relay was deployed in every major network around the world because of its flexibility and cost advantages over the older protocols The result was a widely deployed and well-accepted international standard for data communications The second major development introduced also in 1992 was ATM ATM is a robust set of protocols that works in more than the WAN, but is designed to work across the various platforms of network from the LAN, CAN, MAN, and WAN Because it was designed as a transport set of protocols to work at layer 2 of the OSI equivalent model, ATM both competes with and complements the use of Frame Relay Yet, ATM goes further than just being a data transmission set of protocols It is designed to carry voice, data, video, and high-speed multimedia traffic As a broadband communications set of protocols, ATM is the one set of operating protocols that meets the expectations of the end user, local and long distance carrier, and the equipment manufacturers alike But, like all new protocols that cross boundaries (between the voice and data worlds), ATM needed some added enhancements that were not ready in 1992 Consequently, ATM did not start to catch on until late 1995 and early 1996 Moreover, ATM has been specified and studied to death, slowing its acceptance Now, just before the new millennium, ATM has come into its own as an accepted and standardized set of protocols for the network providers in the various locations What remains is a problem with the rollout of the equipment and other associated interfaces Where the carriers have endorsed and embraced Frame Relay, they now have to upgrade to an ATM backbone network This will require significant investments Moreover, the carriers will still have the frame relay switches in the networks that are on the books, usable and still viable traffic handling machines To solve the problem, several techniques were developed to allow legacy systems, new systems, Frame Relay, and ATM all work together This concept has been deemed as Frame Relay and ATM internetworking In reality, it is a form of interworking instead of internetworking.

base An excellent book on structures and how they bend when loaded is Design of Weldments, by Omer Blodgett

There are four commonly used ways for loading members into dimensions within a PPS Planning Application The choice of the data loading method depends on the volume, the original source, the complexity, and the volatility of the dimension data The following sections will explain each of the commonly used data loading mechanisms with examples Direct Data Entry The dimension member data can be directly entered to the dimension from the Member Maintenance tab in the dimension workspace The direct data entry method is recommended for dimensions that have few members that are fairly static, and where the dimension data cannot be derived from any other sources including an existing data warehouse The Scenario dimension is selected to demonstrate direct data entry method in this chapter The first step is direct data entry method is to check out the Scenario dimension by clicking the Check Out link from the Dimension Tasks pane After checking out the dimension, select the Member Maintenance tab in the dimension workspace In the next step, go to the Actions menu and select action New Sibling This will add a new member to the Scenario dimension with the Name and Label values of NewMember1, as shown in the top half of Figure 7-18 You can then double click on the text NewMember1 under the Name column and change the name to Actual

One way to understand the interworking functionality of the two sets of protocols is to compare and contrast the capabilities of the two protocols Table 12-1 is used as an overall summary of the two techniques in use today Table 12-1: Comparing Frame Relay and ATM characteristics Features Connection Type Connection Mechanism Switched Access (SVC arrangement) Multiplexing Arrangement Current Speeds Available Frame Relay Connection Oriented PVC Yes but not widely implemented Statistical TDM Typically 56 Kbps 2 Mbps, 1544 Mbps (T1) implementations up to 50 Mbps 123 Mbps /256 Mbps 34 Mbps (E3) 45 Mbps (T3) 51 Mbps (OC1) 155 Mbps (OC3) 622 Mbps (OC12) Area Served WAN LAN CAN MAN WAN Sequencing of Data Protocol Data Units Protocol data Unit Size Flow Mechanisms Traffic Congestion Congestion Notification Bursty No Variable 4096 bytes Circuit by circuit DE bit FECN/BECN Yes, defined by B and B rates

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No Fixed 53 Bytes CLP bit management Payload Type field Yes; defined by PCR (maximum burst sizes)