# Electrical Technology Grade 12 NSC November 2019 QP (Eng)

> Grade 12 Electrical Technology question paper from the NSC November Exam 2019 (English), 17 pages. Read online or download the free PDF.

- Page: https://www.hlayiso.com/library/electrical-technology-nov-2019-power-system-eng/4406128e-edd4-40d2-a732-a18d642dda3a
- Updated: 2026-09-27
- Subject: Electrical Technology
- Grade: Grade 12
- Document type: Question paper
- Year: 2019
- Exam period: NSC November Exam
- Curriculum: CAPS
- Pages: 17

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## About this document

Electrical Technology · Grade 12 · NSC November Exam · 2019. Question paper, 17 pages. Read online or download the PDF.

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## Document text

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                                 GRAAD 12

                                 NATIONAL
                            SENIOR CERTIFICATE

                                   GRADE 12

                 ELECTRICAL TECHNOLOGY: POWER SYSTEMS

                                NOVEMBER 2019

MARKS: 200

TIME: 3 hours

        This question paper consists of 14 pages, a 2-page formula sheet and
                                  1 answer sheet.

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Electrical Technology: Power Systems          2                            DBE/November 2019
                                             NSC

INSTRUCTIONS AND INFORMATION

1.        This question paper consists of SIX questions.

2.        Answer ALL the questions.

3.        Answer QUESTION 2.3.4 on the attached ANSWER SHEET.

4.        Write your CENTRE NUMBER and EXAMINATION NUMBER on the
          ANSWER SHEET and hand it in with your ANSWER BOOK, whether you
          have used it or not.

5.        Sketches and diagrams must be large, neat and FULLY LABELLED.

6.        Show ALL calculations and round off answers correctly to TWO decimal
          places.

7.        Number the answers correctly according to the numbering system used in this
          question paper.

8.        You may use a non-programmable calculator.

9.        Calculations must include:

          9.1         Formulae and manipulations where needed

          9.2         Correct replacement of values

          9.3         Correct answer and relevant units where applicable

10.       A formula sheet is attached at the end of this question paper.

11.       Write neatly and legibly.

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Electrical Technology: Power Systems              3                           DBE/November 2019
                                                 NSC

QUESTION 1: OCCUPATIONAL HEALTH AND SAFETY
1.1       Describe how teamwork improves work ethics.                                               (2)
1.2       With reference to the Occupational Health and Safety Act, 1993 (Act 85 of
          1993):
          1.2.1        State TWO purposes of the Occupational Health and Safety Act,
                       1993 (Act 85 of 1993).                                                       (2)
          1.2.2        Define the term workplace.                                                   (2)
1.3       An employer has a duty to report on occupational health and safety and
          related matters. Name ONE person they should inform when:
          1.3.1        The allocated task is hazardous                                              (1)
          1.3.2        A major incident occurs                                                      (1)
1.4       State TWO general emergency procedures to be followed when the
          emergency siren is sounded at school.                                                     (2)
                                                                                                    [10]
QUESTION 2: RLC CIRCUITS
2.1       Define the following with reference to RLC circuits:
          2.1.1        Power factor                                                                 (2)
          2.1.2        Q-factor of an inductor in a resonant circuit                                (2)
2.2       State TWO applications of RLC circuits.                                                   (2)
2.3       FIGURE 2.3 below shows an RLC series circuit. Answer the questions that
          follow.

                                         R             L               C

                                 VR = 12 V          VL = 16 V     VC = 24 V

                              IT = 3 A

                                                       60 Hz

                                 FIGURE 2.3: RLC SERIES CIRCUIT
          Given:
          IT      =   3A
          VR      =   12 V
          VL      =   16 V
          VC      =   24 V
          f       =   60 Hz
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Electrical Technology: Power Systems               4                           DBE/November 2019
                                                  NSC

          2.3.1         Calculate the total voltage of the supply.                                    (3)

          2.3.2         Calculate the value of the inductive reactance.                               (3)

          2.3.3         State if the circuit is capacitive or inductive. Motivate your answer.        (2)

          2.3.4         Complete the phasor diagram on the ANSWER SHEET for
                        QUESTION 2.3.4 and show the direction of rotation.                            (4)

          2.3.5         Describe how an increase in impedance, while keeping the
                        resistance constant, will affect the phase angle and the power
                        factor.                                                                       (2)

2.4       FIGURE 2.4 below shows an RLC parallel circuit consisting of a 20 Ω resistor,
          an inductor with an inductive reactance of 30 Ω and a capacitor with a
          capacitive reactance of 40 Ω, all connected across a 120 V/60 Hz supply.
          Answer the questions that follow.

                                        IT

                                               IR = 6 A       IL = 4 A          IC = 3 A

           120 V                               R = 20 Ω        XL = 30 Ω           XC = 40 Ω
           60 Hz

                                 FIGURE 2.4: RLC PARALLEL CIRCUIT

          Given:

          R        =    20 Ω
          XL       =    30 Ω
          XC       =    40 Ω
          VT       =    120 V
          f        =    60 Hz

          2.4.1         Calculate the total current in the circuit.                                   (3)

          2.4.2         Calculate the phase angle.                                                    (3)

          2.4.3         State whether the phase angle is leading or lagging. Motivate your
                        answer.                                                                       (2)

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Electrical Technology: Power Systems             5                          DBE/November 2019
                                                NSC

2.5       FIGURE 2.5 below shows an RLC series resonant circuit which consists of a
          12 Ω resistor, an inductor with an inductive reactance of 50 Ω and a variable
          capacitor, all connected across a 120 V/2 kHz supply. Answer the questions
          that follow.

                               R = 12 Ω           XL = 50 Ω            C

                                                 120 V/2 kHz
                          FIGURE 2.5: RLC SERIES RESONANT CIRCUIT

         Given:

         VT       =   120 V
         f        =   2 kHz
         R        =   12 Ω
         XL       =   50 Ω

          2.5.1        Calculate the value of C when the circuit resonates at 2 kHz.              (4)

          2.5.2        Calculate the value of the current in the circuit.                         (4)

          2.5.3        State how current will be affected if the value of the resistance is
                       doubled.                                                                   (1)

          2.5.4        List THREE characteristics of an RLC series circuit at resonance.          (3)
                                                                                                  [40]

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Electrical Technology: Power Systems             6                      DBE/November 2019
                                                NSC

QUESTION 3: THREE-PHASE AC GENERATION
3.1       List THREE advantages of power factor improvement for the consumer.                  (3)
3.2       Explain why the power distribution to consumers is connected in star.                (2)
3.3       State the difference between a wattmeter and a kilowatt-hour meter.                  (2)
3.4       State the purpose of the following:
          3.4.1          National power grid                                                   (1)
          3.4.2          Eskom's national control centres                                      (1)
3.5       Refer to FIGURE 3.5 below and answer the questions that follow.

                                 +V        VR         2       3

                                   0
                                                                    t

                                  -V

                         FIGURE 3.5: THREE-PHASE VOLTAGE WAVEFORM
          3.5.1          Label the generated voltage waveforms marked 2 and 3 according
                         to the universally adopted sequence.
                         NOTE: Take VR as reference.                                           (2)
          3.5.2          Name the phase displacement between the three waveforms
                         generated in FIGURE 3.5.                                              (1)
3.6       A 380 V three-phase, star-connected AC motor has an output power of 25 kW
          and it operates at a lagging power factor of 0,87. The efficiency of the motor
          is 85%.
          Given:
          VL         =     380 V
          ƞ          =     85%
          Cos ө      =     0,87 lagging
          Pout       =     25 kW
          Calculate the:
          3.6.1          Input power                                                           (3)
          3.6.2          Line current                                                          (3)
          3.6.3          Phase current                                                         (2)
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Electrical Technology: Power Systems                     7                             DBE/November 2019
                                                        NSC

3.7       Refer to FIGURE 3.7 below and answer the questions that follow.

          Given:

          P1      =        14 kW
          P2      =        18 kW

                          L1                                      Terminal A
                                                 Current coil 1

                                        P1
                                                 Voltage coil 1

                                                                                LOAD
                          L2                                Terminal B

                                                Voltage coil 2

                                        P2                         Terminal C
                          L3                     Current coil 2

                                                      FIGURE 3.7

          3.7.1                Identify the method used in FIGURE 3.7 to measure the power
                               to the load.                                                                  (1)

          3.7.2                Calculate the total power used by the load.                                   (3)

          3.7.3                Calculate the power factor of the system.                                     (3)

3.8       A delta-connected three-phase load is supplied by a 20 kVA generator with
          a phase voltage of 220 V. The power factor of the load is given as
          0,85 lagging. Calculate the line current at full load.

          Given:

          S           =        20 kVA
          VPH         =        220 V
          PF          =        0,85                                                                          (3)
                                                                                                             [30]

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Electrical Technology: Power Systems              8                     DBE/November 2019
                                                 NSC

QUESTION 4: THREE-PHASE TRANSFORMERS

4.1       List THREE external conditions that may cause transformer failure.                     (3)

4.2       Explain what would happen if an earth fault occurs in one of the three phases
          of a protected transformer.                                                            (3)

4.3       Describe how an increase in the load would affect the magneto motive force
          in the primary windings.                                                               (3)

4.4       Name TWO types of cooling methods for a dry transformer.                               (2)

4.5       State why the output power of a transformer is slightly less than the input
          power.                                                                                 (1)

4.6       Describe the construction of a three-phase core-type transformer.                      (3)

4.7       A star-delta connected transformer has 600 turns in the primary windings and
          80 turns in the secondary windings. The transformer is connected to a
          6 kV supply.

          Given:

          NP       =    600 turns
          NS       =    80 turns
          VL(P)    =    6 kV

          Calculate the:

          4.7.1         Turns ratio                                                              (3)

          4.7.2         Primary phase voltage                                                    (3)

          4.7.3         Secondary phase voltage                                                  (3)

          4.7.4         Secondary line voltage                                                   (2)

4.8       With reference to Faraday's law, describe how mutual induction occurs in
          a transformer.                                                                         (4)
                                                                                                 [30]

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Electrical Technology: Power Systems              9                           DBE/November 2019
                                                 NSC

QUESTION 5: THREE-PHASE MOTORS AND STARTERS

5.1       List THREE electrical inspections that need to be carried out on a three-phase
          motor before commissioning it.                                                                (3)

5.2       Describe why it is necessary to have protective devices as part of motor
          control.                                                                                      (2)

5.3       Study FIGURE 5.3 below and answer the questions that follow.

                  L

                         O/L1

                       Stop                    MC1
                      button                   N/O2

                   Start                                                                 T
                                             MC1
                  button                                                                N/O
                                             N/O1

                                                                              O/L2

                        MC1               Timer (T)                                       MC2

                  N

                                    FIGURE 5.3: CONTROL CIRCUIT

          5.3.1          Identify the motor starter in FIGURE 5.3.                                      (2)

          5.3.2          Describe what would happen to contactor MC1 if contact MC1 N/O1
                         was faulty and permanently closed.                                             (4)

          5.3.3          Describe the starting sequence of the control circuit.                         (4)

          5.3.4          Describe the main function of contactor MC1.                                   (2)

5.4       Explain why the starting current is reduced in a star-delta motor starter.                    (2)

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Electrical Technology: Power Systems            10                        DBE/November 2019
                                               NSC

5.5       A 16 kW three-phase star-connected motor with 12 poles, is connected
          across a 380 V/50 Hz supply and draws a phase current of 29 A with a power
          factor of 0,85.

          Given:

          Number of poles       =      12
          Cos θ                 =      0,85
          POUT                  =      16 kW
          VL                    =      380 V
          IPH                   =      29 A
          f                     =      50 Hz

          Calculate the:

          5.5.1       Apparent power                                                            (3)

          5.5.2       Synchronous speed                                                         (5)

          5.5.3       Percentage slip if the rotor speed is 1 400 r/min                         (3)
                                                                                                [30]

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Electrical Technology: Power Systems             11                        DBE/November 2019
                                                NSC

QUESTION 6: PROGRAMMABLE LOGIC CONTROLLERS (PLCs)

6.1       With reference to PLCs:

          6.1.1       Name the system used for automated machine control for industrial
                      production before PLCs were developed.                                      (1)

          6.1.2       State THREE health and safety issues to consider, other than anti-
                      surge protection, when working with PLC equipment and
                      installations.                                                              (3)

6.2       Explain the term software with reference to the operation of a PLC.                     (3)

6.3       Explain why it is important to install anti-surge protection when working with
          PLCs.                                                                                   (2)

6.4       With reference to the input devices of PLCs:

          6.4.1       Define the term sensor.                                                     (2)

          6.4.2       List THREE types of sensors other than a level sensor.                      (3)

          6.4.3       State an application of a level sensor.                                     (1)

          6.4.4       Describe the function of an analogue device.                                (2)

6.5       Refer to FIGURE 6.5 below and answer the questions that follow.

                                  Input A    Input B   Output (F)
                                     0           0         0
                                     0           1         1
                                     1           0         1
                                     1           1         1
                                     FIGURE 6.5: TRUTH TABLE

          6.5.1       Draw the logic gate symbol that this truth table represents.                (3)

          6.5.2       Draw the ladder logic diagram that this truth table represents.             (3)

          6.5.3       Write the logic function of FIGURE 6.5.                                     (2)

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Electrical Technology: Power Systems                  12                DBE/November 2019
                                                     NSC

6.6       FIGURE 6.6 below shows a PLC logic program with a time delay of
          10 seconds. Answer the questions that follow:

                            L                                             N

                                       I1                    TD1

                                 Push Button                10 sec

                                       TD1                    Q

                                                             Output

                       I1

                       Q
                                            10 sec

                        FIGURE 6.6: TIME-DELAY PLC LOGIC PROGRAM

          6.6.1       State whether the logic program uses an ON-delay timer contact or
                      an OFF-delay timer contact.                                              (1)

          6.6.2       Describe the sequential operation of the logic program when the
                      push button (I1) is pressed.                                             (5)

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Electrical Technology: Power Systems                             13                           DBE/November 2019
                                                                NSC

6.7       Draw a ladder logic diagram that will execute the same function as the control
          circuit in FIGURE 6.7 below.

                                             L

                                                  O/L

                                                  Stop
                                                 button

                                                  Start                  MC1
                                                 button                  N/O1
                                                                                      MC1
                                                                                      N/O2

                                                  MC1                                  LAMP

                                             N

                                                    FIGURE 6.7: CONTROL CIRCUIT                                      (7)

6.8       FIGURE 6.8 below shows a variable frequency drive (VFD) circuit. Study the
          circuit and answer the questions that follow:

              Three-phase AC Supply
                                                                                                      Motor

                                         FIRST STAGE       SECOND THIRD STAGE
                                                            STAGE
                                      FIGURE 6.8: VARIABLE FREQUENCY DRIVE (VFD) CIRCUIT

          6.8.1                         Describe the purpose of the first stage of the VFD circuit.                  (2)

          6.8.2                         Explain how speed control is achieved by using the switches in the
                                        third stage.                                                                 (2)

          6.8.3                         Explain how the output waveform and the frequency of the supply
                                        will be affected if the switches remain 'ON' for a longer period.            (2)

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Electrical Technology: Power Systems              14                               DBE/November 2019
                                                 NSC

6.9       With reference to the use of the VFD to control the speed of a motor, answer
          the following questions:

          6.9.1        State THREE production advantages for industries and
                       manufacturers when using a VFD to control the speed of a motor.                 (3)

          6.9.2        Name ONE application of a VFD.                                                  (1)

          6.9.3        List THREE VFD methods that can be used to control the speed of
                       a motor.                                                                        (3)

6.10      With reference to the regenerative braking process:

          6.10.1       Give THREE examples where regenerative braking is applied other
                       than in lifts.                                                                  (3)

          6.10.2       Explain how regenerative braking is achieved.                                   (2)

6.11      FIGURE 6.11 below shows the characteristic curve of speed versus torque
          when the VFD is used to control the speed of a three-phase induction motor.
          Study the characteristic curve and answer the questions that follow.

                                      400
                                                                           A

                           % Torque
                                      300

                                      200                                      B

                                      100

                                            20   40      60     80   100
                                                      % Speed
                     FIGURE 6.11: SPEED-TORQUE CHARACTERISTIC CURVE

          6.11.1       Name region A.                                                                  (1)

          6.11.2       Describe the start up and run profile of the induction motor in
                       FIGURE 6.11.                                                                    (3)
                                                                                                       [60]

                                                                                         TOTAL:        200

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Electrical Technology: Power Systems                                                             DBE/November 2019
                                                           NSC

                                                FORMULA SHEET
RLC CIRCUITS                                                     THREE-PHASE AC GENERATION
P  V  I  cos θ                                                STAR
XL  2 fL                                                       VL = 3 VPH
          1                                                      VPH = IPH × ZPH
XC 
        2 fC                                                    IL = IPH
         1
fr                                                              DELTA
   2 LC
     f                                                           VL = VPH
BW  r
     Q                                                           VPH = IPH × ZPH
SERIES                                                           IL  3 IF
VR  I R
                                                                 POWER
VL  I XL
VC  I XC                                                        S (Papp)         3  VL  IL
       VT                                                        Q (Pr )        3  VL  IL  Sin θ
IT                 OR           IT  IR  IC  IL
       Z                                                         P     3  VL  IL Cos θ
                                                                             P
Z  R 2  X L  X C                                            Cos θ 
                             2
                                                                             S
VT  VR  VL  VC                             VT  I Z
                2                2
                                       OR                        EFFICIENCY
            R                                  VR                     output power
Cos θ               OR              Cos θ                      η                 100%
            Z                                  VT                      input power
       XL X C VL VC 1 L
Q                                                           TWO-WATTMETER METHOD
       Z   Z   VT VT R C
PARALLEL
                                                                 PT  P1  P2
VT  VR  VL  VC
       VT                                                                   P - P 
IR                                                              tan θ  3  1 2 
       R                                                                     P1  P2 
    VT
IC                                                              THREE-WATTMETER METHOD
    XC
    V
IL  T                                                           PT  P1  P2  P3
    XL

IT  IR  IL  IC 
            2            2

       VT
Z
       IT
       I
Cos θ  R
       IT
       XL X C IL IC 1 L
Q            
       Z   Z  IT IT R C

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Electrical Technology: Power Systems                                           DBE/November 2019
                                            NSC

THREE-PHASE TRANSFORMERS                    THREE-PHASE MOTORS AND
                                            STARTERS
STAR                                        STAR
VL = 3 VPH and IL = IPH                     VL = 3 VPH and IL = IPH
DELTA                                       DELTA
IL = 3 IPH and VL = VPH                     IL =     3 IPH and VL = VPH
POWER                                       POWER
S (Papp)          3  VL  IL              S (Papp)     3  VL  IL
Q (Pr )          3  VL  IL  Sin θ       Q (Pr )     3  VL  IL  Sin θ

P       3  VL  IL Cos θ                  P     3  VL  IL Cos θ

             P                                      P
Cos θ                                      Cos θ 
             S                                      S
                                            EFFICIENCY
Vph(p)       Np        Iph(s)                  output power
                                          η               100%
Vph(s)       Ns        Iph(p)                   input power

   Transformer ratio (TR)                       60 × f
                                            ns =
    N                                             p
TR  p
    Ns                                              n  nr
                                            % slip  s      100
                                                       ns
                                                           n  nr
                                            Per Unit Slip  s
                                                              ns
                                            Slip  ns  nr

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Electrical Technology: Power Systems                          DBE/November 2019
                                              NSC

CENTRE NUMBER:

EXAMINATION NUMBER:

ANSWER SHEET

2.3.4        VL = 16 V

                                       VR = 12 V

                                                   IT = 3 A

                                                               Transfer mark to
                                                               answer book

              VC = 24 V
                                                                           MOD

                                            FIGURE 2.3.4                          (4)

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