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2.1 Descripción del entorno y análisis de la situación actual de radio y

2.1.9 Análisis de datos de encuesta

2.1.9.1 Radio Zaracay

Figs. 3.61 and 3.62 show the RBFNN test output and error of phase A when an inter-turn fault occurs on phase A inside the stator of an induction motor. From Fig. 3.61 the RBFNN test output is equal to zero for first three samples and is equal to one for the faulty condition from 4 to 21 samples with good accuracy. This shows that the RBFNN is able to locate correctly the fault

occurring on phase A. The testing error is 5.2727 × 10-7 as shown in Fig.3.62.

Fig.3.61 Test Output of phase A for fault on phase A Fig.3.62 Test Error of phase A for fault on phase A The RBFNN test output and error of phase B when an inter-turn short circuit fault occurs on phase A inside the stator of an induction motor as shown in Figs. 3.63 and 3.64. From Fig. 3.63 it is clear that the RBFNN well learn the test data with good accuracy. Hence the RBFNN is able to

locate correctly the stator inter-turn short circuit fault occurring on A phase. The testing error is

very low i.e 4.0955 × 10-7 as shown in Fig.3.64.

Fig.3.63 Test Output of phase B for fault on phase A Fig.3.64 Test Error of phase B for fault on phase A

Figs. 3.65 and 3.66 show the RBFNN test output and test error of phase C when an inter-turn short circuit fault occurs on phase A inside the stator of an induction motor. Fig. 3.65 shows that the RBFNN well learn the test data and gives the test output with good accuracy. The testing

error is 2.2727 × 10-7 as shown in Fig.3.66. Hence we conclude that the RBFNN is able to locate

correctly the fault occurring on phase A.

Fig.3.67 Test Output of phase A for fault on phase B Fig.3.68 Test Error of phase A for fault on phase B The RBFNN test output and test error of phase A when an inter-turn short circuit fault occurs on phase B inside the stator winding of an induction motor as shown in Figs. 3.67 and 3.68. From Fig. 3.67 it is clear that the RBFNN test output is equal to zero for all the samples with good

accuracy. The testing error for this case is very low i.e 1.3182 × 10-8 as shown in Fig.3.68. Hence

the RBFNN is able to locate correctly the inter-turn short circuit fault on phase B.

The RBFNN test output and error of phase B when an inter-turn short circuit fault occurs on phase B inside the stator of an induction motor as shown in Figs. 3.69 and 3.70. From Fig. 3.69 it is clear that the RBFNN has well learned the test data for all the samples with good accuracy.

Fig.3.69 Test Output of phase B for fault on phase B Fig.3.70 Test Error of phase B for fault on phase B

Fig.3.71 Test Output of phase C for fault on phase B Fig.3.72 Test Error of phase C for fault on phase B Figs. 3.71 and 3.72 show the RBFNN test output and error of phase C when an inter-turn fault occurs on phase B inside the stator of an induction motor. Fig. 3.71 shows the RBFNN well learn

the test data and gives the test output is equal to zero for all samples with good accuracy. Hence

the RBFNN is able to locate correctly the stator inter-turn fault occurring on phase B. From Fig

3.72 the testing error is 3.6364 × 10-8.

Figs. 3.73 and 3.74 show the RBFNN test output and test error of phase A when an inter-turn short circuit fault occurs on phase C inside the stator of an induction motor. Fig. 3.73 shows that the RBFNN well learn the test data and gives the test output with good accuracy. The testing

error is 1.1364 × 10-7 as shown in Fig.3.74. Hence we conclude that the RBFNN is able to locate

correctly the fault occurring on phase C.

Fig.3.73 Test Output of phase A for fault on phase C Fig.3.74 Test Error of phase A for fault on phase C Figs. 3.75 and 3.76 show the RBFNN test output and test error of phase B when an inter-turn short circuit fault occurs on phase C inside the stator of an induction motor. The RBFNN well learn the test data and gives the test output with good accuracy as shown in Fig. 3.75. The testing

error is very low i.e 1.8182 × 10-8 as shown in Fig.3.76. Hence we conclude that the RBFNN is

Fig.3.75 Test Output of phase B for fault on phase C Fig.3.76 Test Error of phase B for fault on phase C

Fig.3.77 Test Output of phase C for fault on phase C Fig.3.78Test Error of phase C for fault on phase C Figs. 3.77 and 3.78 show the RBFNN test output and test error of phase C when an inter-turn short circuit fault occurs on phase C inside the stator winding of an induction motor. From Fig. 3.77 RBFNN test output is equal to zero for first three samples and is equal to one for the faulty

condition from 4 to 21 samples with good accuracy. Fig.3.77 shows that the MLPNN is able to

locate correctly the fault occurring on phase C. The testing error is 1.8182 × 10-8 as shown in

Fig.3.78.

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