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The test fails How are we going to implement it First, we need a refactoring We need to know the project within which tests are running Imagine we had ten different projects and tests were running simultaneously for all of them When we started the tests for the tenth project, we would want to delete the markers, for just that project, in much the same way the compiler deletes the markers for a compilation unit when it begins to compile We need to extend the API of test running in JUnitPlugin to take the project into account In JUnitPluginrun(IType), since there is only one test class being run, the project is not ambiguous:

Their main contribution was based on the basic de ciencies of classic ooding, namely, Implosion, Overlap, and Resource Blindness Implosion is sending data redundantly to one s neighbors regardless of whether they already received it Coverage overlap of nodes can make them gather the same data and ood it to common neighbors Classic ooding can be blind to the availability of resources when it is ooding data across the network The use of metadata allows nodes to negotiate between themselves and prevent redundantly transmitting the same information Also, in SPIN, each node has a local resource manager that keeps track of its resources and helps a node decide whether to transmit or process data SPIN rst broadcasts metadata to its neighbors Then, if it receives a request for the data from any neighbor it sends the data to that node There are four protocols in the SPIN family.

The rst two, SPIN-PP and SPIN-BC, tackle the basic problem of data dissemination under ideal conditions The other two, SPIN-EC and SPIN-RL, are modi ed versions of the rst two SPIN-PP is optimized for communicating in a point-to-point mode, where for each data transmission between neighbors, a three-stage handshaking (ADV-REQ-DATA) is.

public void run(IType type) throws CoreException { new TestRunner()run(new IType[] {type}, typegetJavaProject() ); } The TestRunner will save the project within which tests are running and pass it as a parameter when it wants to broadcast progress to the test listeners

1. K. R mer. Time synchronization and localization in sensor networks. Ph.D. thesis, Swiss o Federal Institute of Technology Zurich (ETH Zurich), Zurich, Switzerland, 2005. 2. L. Lamport. Time, clocks, and ordering of events in a distributed system. Communications of ACM, 21(4):558 565, July 1978. 3. B. Sundararaman, U. Buy, and A. D. Kshemkalyani. Clock synchronization for wireless sensor networks: A survey. Ad Hoc Networks, 3(3):281 323, 2005. 4. F. Sivrikaya and B. Yener. Time synchronization in sensor networks: A survey. IEEE Network Magazine s special issue on Ad Hoc Networking: Data Communications & Topology Control, 18(4):45 50, 2004.

When we work with clients who are looking at their plan design, our approach is to focus initially on their overall goals and objectives. This quickly moves into modeling the current plan and possible alternatives, looking at the impact on sample employees and then in aggregate on the employer. In order to help you get a sense of the tools and methods we use, we have put together three charts that illustrate this process. We use graphs to communicate information and to make it real to our clients. We find they understand information when we present it in graphical format rather than in a big set of tables with numbers.

public class TestRunner { private IJavaProject project; public TestRunner(IJavaProject project) { thisproject= project; } } We need to pass the project along to the various fire* methods in JUnitPlugin Use Change Method Signature to add a parameter to each of these methods (see Figure 162)

5 H Kopetz and W Ochsenreiter Clock synchronization in distributed real-time systems IEEE Transactions on Computers, C-36(8):933 939, 1987 6 H Kopetz and W Schwabl Global time in distributed real-time systems Technical report 15/89, Technische Universit t Wien, 1989 a 7 L Kleinrock and F A Tobagi Packet switching in radio channels: Part I carrier sense multiple-access modes and their throughput-delay characeteristics IEEE Transactions on Communications, COM-23(12):1400 1416, 1975 8 IEEE std 80211b-1999 part 11: Wireless LAN medium access control (MAC) and physical layer (PHY) speci cations, August 1999 9 D L Mills Internet time synchronization: The network time protocol IEEE Transactions on Communications, 39(10):1482 1483, 1991 10 J Elson and D Estrin Time synchronization for wireless sensor networks, In Parallel and Distributed Processing Symposium (IPDPS), April 2001, pp 1 6 11 J Elson, L Girod, and D Estrin Fine-grained network time synchronization using reference broadcasts.