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43 Multicast Push Scheduling In multicast push, a server cyclically multicasts a set of hot pages The objective of the multicast push scheduling component is to decide the frequency and order in which those pages are disseminated The component obtains the multicast page set from the main control unit (so that no further decision as to the membership in that set is made downstream of the document selection component, Figure 101) Multicast push scheduling also interacts with the broadcast index component (Section 1045) The multicast push scheduling components are present only at the server side The implementation of multicast push scheduling can proceed according to different algorithms The simplest broadcast strategy is to adopt a at broadcast schedule, whereby each page is transmitted once every n ticks A sample at schedule is depicted in Figure 102(a).

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Non at schemes are desirable when some pages are more popular than others, in which case the most popular pages should be devoted a larger fraction of the available bandwidth A simple way to differentiate pages is through frequency multiplexing, where the data source partitions the data set across several physical channels according to their popularity [55, 70] Differentiated treatment arises from aggregating a smaller amount of hotter data on one channel and a larger amount of cooler data on another channel Since channel bandwidth is the same, the fewer hotter pages receive a proportionally larger amount of bandwidth than cooler pages An alternative is timedivision multiplexing, whereby pages are partitioned into a set of logical channels, and the logical channels alternate over the same physical channel [4] The broadcast schedule is at within a single logical channel, but hotter channels contain less pages or are.

As software systems continue to be distributed deployments over ever-increasing scales, transcending geographical, organizational, and traditional commercial boundaries, the demands placed upon their communication infrastructures will increase exponentially. Modern systems operate in complex environments with multiple programming languages, hardware platforms, operating systems and the requirement for dynamic exible deployments with 24/7 reliability, high throughput performance and security while maintaining a high Quality-of-Service (QoS). In these environments, the traditional direct Remote Procedure Call (RPC) mechanisms quickly fail to meet the challenges present. In order to cope with the demands of such systems, an alternative to the RPC distribution mechanism has emerged. This mechanism called Message-Oriented Middleware or MOM provides a clean method of communication between disparate software entities. MOM is one of the cornerstone foundations that distributed enterprise systems are built upon. MOM can be de ned as any middleware infrastructure that provides messaging capabilities. A client of a MOM system can send messages to, and receive messages from, other clients of the messaging system. Each client connects to one or more servers that act as an intermediary in the sending and receiving of messages. MOM uses a model with a peer-to-peer relationship between individual clients; in this model, each peer can send and receive messages to and from other client peers. MOM platforms allow exible cohesive systems to be created; a cohesive system is one that allows changes in one part of a system to occur without the need for changes in other parts of the system. 1.1.1 Interaction Models Two interaction models dominate distributed computing environments, synchronous and asynchronous communication. This section introduces both interaction models; a solid

techniques to organize the security de nition process, including federated policy domains, system- and application-enforced policies, and overlapping policy domains [5] 9213 Security User Views The CORBA-compliant security model can be viewed differently by ve types of users: the enterprise manager, the end user, the application developer, the operation system administrator, and the object system implementer We brie y review each of these views: The Enterprise Management View encompasses an organization-wide perspective on the treatment of security requirements The objective of this view is to protect all of the information assets of the organization (enterprise), and to accomplish this at a reasonable cost Risk assessment, protection against malicious and inadvertent security breaches, countermeasures, and so on, are all part of this view The end result will be the de nition of security policies, as appropriate, for different portions of an organization.

5.2 INTERIOR GATEWAY PROTOCOLS (IGP)