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Figure 26-6: Extended Superframe Format improves uptime and error checking After the framing bits had been addressed, another choice was used to handle the T1 circuit As described previously, the robbed bit signaling gets in the way of data transmission It is not a problem for voice communications, but definitely impacts the data side of the business To solve this problem, a technique called common channel signaling was introduced The use of channel number 24 was assigned for strictly signaling (call setup and teardown) for the other 23 channels By using a dedicated outof-band signaling channel, the other 23 channels can carry all 64 Kbps for data, yielding a higher throughput per channel, but with a penalty of losing one channel from the T1 The format of the common channel signaling arrangement is shown in Figure 26-7 This is a choice a user has to make If all the user wants is voice communications, the robbed bit signaling will suffice If, however, the user wants to transmit data, then the common channel signaling will be a potential benefit to the data transmission

After the great show Live Wires put on, we started building the frame of the robot We used 4-inch-tall aluminum C-channels for all of the sides of the robot Figure 14-12 shows the frame structure prior to being bolted onto the robot You will notice that we had to cut a few notches in the bottom of the channels to account for the pillow blocks After the frame was built, we made a set of aluminum boxes to hold the batteries in place The last thing you want are for the batteries to rattle around inside your robot After the TLC guys left, we noticed that we had the same motor shaft adapter failure we had the night before Luckily, it had held together long enough for the video taping I still wanted a bolt-on type of solution with the threaded motor shaft, so I spent a lot of time looking at different approaches The proper way would be to pin the adapter onto the shaft, but I didn t want to go that route I decided to use the same type of mounting method the Jacobs chuck uses to attach to the motor shaft Figure 14-13 shows this new adapter One side is for using a removable pin

Another problem surfaced when T1 was introduced for data transmission In order to synchronize the carrier services, T1 uses a byte synchronization plan In every eight bits there must be at least one pulse (represented as a digital one) for the transmitters to derive their timing on the line If voice is the application, there are minimal problems with this constraint As long as a party on the conversation is talking, there are sufficient numbers of ones pulses transmitted to keep the line synchronized Yet, when data is transmitted, there may be strings of zeros transmitted continuously This string of zeros will cause the transmitters to drift and lose timing To solve this problem, the Bell system introduced a ones density requirement, which states that in every eight bits transmitted there must be at least one digital one Further, no more than 15 consecutive zeros may be transmitted in a row; otherwise the timing will be lost The solution to meeting this rule is handled in the CSU If the CSU receives 8 zeros

14:

to less than 15 percent a year A narrower KPI such as the percentage of defective products produced might be of great interest to the vice president of manufacturing and the rest of the manufacturing organization, but of little interest to the sales organization The ability to customize the scorecard for each person is one of the strengths of scorecarding Don t think of the scorecard think of the set of KPIs and how they can be used to build any number of scorecards

in a row, it will strip off the least significant bit and substitute a one in its place This will meet the requirements of the ones density However, when the zero is stripped off and a one substituted in its place (called pulse stuffing), there is no way to know when this is done or when it is not Consequently, this solution meets the timing and synchronization demands of the network, but leaves the user with the risk that the 8th bit is wrong This leads the user to only trusting the first 7 bits, but ignoring the 8th bit Ultimately, the result is 7 usable bits instead of 8 or a 56 Kbps throughput on the line instead of 64 Kbps (7 bits times 8,000 samples = 56 Kbps) This results in a lot of wasted bandwidth and a limited throughput for data transmission The pulse stuffing mechanism is shown in Figure 26-8

FIGURE 14-12