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As a means of keeping everything in order, it is appropriate to discuss the speed that can be achieved with the use of Frame Relay Although in the beginning of this chapter, it was stated that Frame Relay was designed for speeds up to T1/E1 (1544 2048 Mbps); it later evolved to speeds of up to 50 Mbps Actually, few end users have ever implemented Frame Relay at the higher speeds; this is more of a speed for the carrier community, but the need for stepped increments has always been a requirement for data transmission Therefore, Table 10-2 is used to show some of the speed increments typically used Other rates are possible in 4 Kbps increments, but implementations are normally done at the speeds shown in Table 10-2 Table 10-2: Typical speeds used in Frame Relay Frame Relay Access 56 Kbps (DS0 or ISDN) 64 Kbps 128 Kbps (ISDN) 128 Kbps (ISDN) 256 Kbps 256 Kbps 384 Kbps 512 Kbps 1544 Mbps 1544 Mbps 2048 Mbps

The Data Sources link on the left pane of the Planning Administration Console page is used to manage the external data source connections for the PerformancePoint Server Planning Server A data source connection provides the Planning Server applications access to relevant business data for business intelligence purposes The source can be external to the Planning Server system, such as an existing data warehouse A data source connection can point to a database, or Data Source View (DSV), which is an XML file that is created from a Microsoft SQL Server 2005 database The connections that are created and configured in the Planning Administration Console are logical connections, and these connection names can be used in Planning Business Modeler The first step in creating a data source connection is to select the application to which the data source connection should be added from the Application dropdown list After the application is selected, the model site to which the data source connection should be added is selected by clicking on the radio button next to the appropriate model site This will enable the Add button Clicking on this button will open the Create a Data Source Connection dialog box The fields Connection name and Label are required fields as denoted by the asterisk next to them The Connection name will be used in Planning Business Modeler, whereas the Label is a unique internal identifier for the connection One out of the two available types of connection sources can be selected here: database or Data Source View (DSV)

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Typical Committed Speed 32 Kbps 32 Kbps 64 Kbps 128 Kbps 128 Kbps 192 Kbps 256 Kbps 384 Kbps 512 Kbps 1024 Mbps

Antennas are used in combat robots to transmit data from the hand-held transmitter to the receiver on the robot Without the antenna, you cannot communicate with your robot One of the biggest problems most robots have with reliable control is not electrical noise but improper antenna setup The ideal antenna configuration would be a vertical wire of a length equal to one wavelength of the radio wave used for communication This works out to nearly 14 feet, which is not practical for most combat robots or most model aircraft or cars, for that matter Most 72- and 75-MHz radios come with a 1/4-wave antenna attached, with a length in the range of 37 to 42 inches Most robots do not have the length or convenient mounting room to carry an external antenna of this size, so the usual antenna length and placement are far from optimal A 1/4-wave antenna means 1/4 of the wavelength of the transmitter/receiver system s operating frequency It s a unique characteristic of the physics of antenna design The higher the frequency, the shorter the wavelength and, of course, the shorter length a 1/4-wave antenna will be Light and radio waves travel at 300 million meters per second, so a 75-MHz signal will have a wavelength of 300,000,000 meters per second divided by 75 million cycles per second, resulting in a 4-meter-long wavelength or about 157 inches A 1/4-wave antenna should be 1/4 this wavelength, or about 39 inches A very important fact about antennas is that they should be mounted vertically This not only applies to the receiver s antenna on the robot but also to the hand-held transmitter s antenna These types of antennas emit their energy in a pattern much like a flattened doughnut, with the antenna passing through the doughnut hole The greatest thickness of the doughnut, as well as the most significant signal from the antenna, is at the sides Conversely, the thinnest part of the doughnut is the hole, which is what you see when you look straight down on it And the thinnest signal comes straight out the end of the antenna If the transmitter s and the receiver s antennas were placed in space where there are no reflections, no signal would be created if they were pointed at each other The greatest signal would be created when they were parallel to each other In situations on Earth, especially in a room with a metal floor, the signals bounce around and reception can be accomplished with almost any orientation You should always keep in mind that these reflections are far weaker than a direct signal,.