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public void setFocus() { viewergetControl()setFocus(); } How does a viewer populate the Table widget with table items Starting from the viewer's input, the content provider is asked for domain objects How this is done depends on the viewer For a tree viewer the domain is traversed by asking the content provider for the children of a domain object For a table, the domain is asked for the elements corresponding to the domain object JFace provides different content-provider interfaces for the different viewers The domain objects returned from the content provider are then passed to the label provider The label provider assigns a text and an icon to a domain object All these interactions are done in terms of the type Object The content and label providers know the domain and can therefore safely cast Object to the corresponding domain type

(5.38)

[ Team LiB ]

Both DC and DB Plans 33% 26% 29%

After collecting the samples of the signal in the decision interval from M nodes, the sink estimates the expectation of the signal over the last decision interval as given in (5.32). As a result, the distortion achieved by this estimation is given as in (5.33). Using the de nitions above and substituting (5.35), (5.38), and (5.32) into (5.33), the distortion function can be derived as [2]

2 2 S 2 2 2 fM ( S + N )

[ Team LiB ]

s (i, s)

The basic ILabelProvider interface has just two methods:

40% 27% 22%

s (i, j) t (|k l|/f )

(5.39) In order to provide further insight into the spatiotemporal correlation characteristics and distortion analysis derived in this section, next we discuss possible approaches that can be used in the design of ef cient communication techniques exploiting the spatiotemporal correlation observed in the wireless sensor networks.

public interface ILabelProvider extends IBaseLabelProvider { public Image getImage(Object element); public String getText(Object element); } As described above, the common currency for viewers is the type Object The label provider returns an image and a text for such a domain object In the case of Table, the label provider interface is extended to return images and text corresponding to table columns The TestReportLabelProvider is therefore positioned in the label provider type hierarchy, as shown in Figure 237

5.4 COROLLARIES AND EXPLOITING CORRELATION IN WIRELESS SENSOR NETWORKS Spatiotemporal correlation, in addition to the collaborative nature of the WSN, bring signi cant potential advantages for the development of ef cient communication protocols well-suited for the WSN paradigm. In this section we discuss possible approaches exploiting spatiotemporal correlation to achieve energy-ef cient medium access and reliable event transport in WSN, respectively. 5.4.1 Spatial Correlation and Medium Access Control The shared wireless channel between sensor nodes and energy considerations of the WSN make the medium access control (MAC) a crucial part of the wireless sensor networking. Furthermore, the scarce energy sources of sensor nodes necessitate energy-aware MAC protocols. Hence, MAC protocols for WSN should be tailored to the physical properties of the sensed phenomenon and the speci c network properties so that the access to the channel is coordinated with minimum collisions without affecting the connectivity throughout the network. In WSNs, many individual nodes deployed in large areas sense events and send corresponding information about these events to the sink. As discussed in Section 5.3.1, due to the physical properties of the event, this information may be highly correlated according to the spatial distribution of the sensor nodes. Intuitively, data from spatially separated sensors are more useful to the sink than highly correlated data from closely located sensors. Hence, it may not be necessary for every sensor

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implements ITableLabelProvider { // } The getColumnText() method returns the text corresponding to a column in a table For theTestReportView the first column shows the test name and the second column the test duration:

node to transmit its data to the sink Instead, a smaller number of sensor measurements might be adequate to communicate the event features to the sink within a certain reliability constraint As a result, the MAC protocol can reduce the energy consumption of the network by exploiting spatial correlation in the WSNs without compromising on the access latency as well as the distortion achieved In order to gain more insight to these intuitions, a case study is performed using the distortion function (512) In a 500-by-500 grid, 50 sensor nodes are randomly deployed The Power Exponential model is used with 2 = 1 and 1 = {10, 50, 100, 500, 1000, 5000, 1000} as the covariance model for the covariance function, K ( ) in (536) The parameter 1 controls the relation between the distance of the nodes and the correlation coef cient.