# Physical Sciences Grade 12 P1 Eastern Cape Mock 2015 QP

> Grade 12 Physical Sciences Paper 1 question paper from the Eastern Cape Mock Exam 2015 (English), 24 pages. Read online or download the free PDF.

- Page: https://www.hlayiso.com/library/phys-sc-p1-qp-gr12-sept2015-eng/d1d50aaa-f560-4fb2-b528-bdec57483904
- Updated: 2026-09-27
- Subject: Physical Sciences
- Grade: Grade 12
- Document type: Question paper
- Year: 2015
- Exam period: Eastern Cape Mock Exam
- Paper: 1
- Curriculum: CAPS
- Pages: 24

Breadcrumbs: [Home](https://www.hlayiso.com/) › [Library](https://www.hlayiso.com/library) › [Grade 12](https://www.hlayiso.com/library/grade-12) › [Physical Sciences](https://www.hlayiso.com/library/grade-12/physical-sciences) › [Physical Sciences Grade 12 P1 Eastern Cape Mock 2015 QP](https://www.hlayiso.com/library/phys-sc-p1-qp-gr12-sept2015-eng/d1d50aaa-f560-4fb2-b528-bdec57483904)

## About this document

Physical Sciences · Grade 12 · Eastern Cape Mock Exam · 2015. Question paper, 24 pages. Read online or download the PDF.

Read it free online on the page above; download the PDF from there.

## Document text

Text extracted from the PDF. Layout, diagrams and tables may not survive extraction.

### Page 1

Downloaded from hlayiso.com

                                NATIONAL
                           SENIOR CERTIFICATE

                                     GRADE 12

                            SEPTEMBER 2015

                      PHYSICAL SCIENCES P1

MARKS:   150

TIME:    3 hours

                                      *PHSCE1*

               This question paper consist of 20, pages including 3 data sheets.

### Page 2

Downloaded from hlayiso.com
2                               PHYSICAL SCIENCES P1                         (EC/SEPTEMBER 2015)

 INSTRUCTIONS AND INFORMATION

 1.     Write your FULL NAME and SURNAME on the ANSWER BOOK.

 2.     The question paper consists of 10 questions. Answer ALL the questions in
        the ANSWER BOOK.

 3.     Start EACH question on a new page in the ANSWER BOOK.

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

 5.     Leave ONE line open between two subquestions for example between
        QUESTION 2.1 and QUESTION 2.2.

 6.     You may use a non-programmable calculator.

 7.     You may use appropriate mathematical instruments.

 8.     You are advised to use the attached DATA SHEETS.

 9.     Show ALL formulae and substitutions in ALL calculations.

 10.    Round off your final numerical answers to a minimum of TWO decimal
        places.

 11.    Give brief explanations, motivations, et cetera where required.

 12.    Write neatly and legibly.

Copyright reserved                                                        Please turn over

### Page 3

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)                 PHYSICAL SCIENCES P1                                    3

 QUESTION 1: MULTIPLE-CHOICE QUESTIONS

 Four options are provided as possible answers to the following questions.
 Each question has only ONE correct answer. Write the letter (A–D) next to the
 question number (1.1–1.10) in your ANSWER BOOK for example 1.11 D.

 1.1    The front of a modern car is designed to crumble in case of a head-on
        collision. The chance of serious injuries to the passenger is reduced
        because the …

        A       net force acting on the passenger is reduced, since the contact
                time for the car to stop decreases.

        B       net force acting on the passenger is reduced, since the rate of
                change in momentum decreases.

        C       net force acting on the passenger is reduced, since the change in
                momentum is reduced.

        D       net force acting on the passenger is reduced, since the change in
                momentum is increased.                                                (2)

 1.2    An astronaut has a weight of W on earth. He lands on a planet with
        mass three times greater than the earth and a radius twice that of the
        earth. What is the weight of the astronaut on this planet? Take the
        radius of the earth as R.

        A             W

        B            W

        C            W

        D       3W                                                                    (2)

 1.3    (Ep+ Ek) top = (Ep +Ek) bottom when only … are present.

        A       frictional forces

        B       tension forces

        C       applied forces

        D       gravitational forces                                                  (2)

Copyright reserved                                                                Please turn over

### Page 4

Downloaded from hlayiso.com
4                                PHYSICAL SCIENCES P1                          (EC/SEPTEMBER 2015)

 1.4     An object is thrown vertically downwards towards the ground from height h
         with a velocity v. The object strikes the ground and bounces upwards. It is
         caught when it reaches its maximum height after the bounce. Which ONE of
         the following velocity versus time graphs best represents the motion of the
         object?

                 v (m.s-1)
                                                       v (m.s-1)
                                           ∆t (s)
                                                                             ∆t (s)

                             A                                      B

                 v (m.s-1)
                                                        v (m.s-1)

                                            ∆t (s)                             ∆t (s)

                             C                                      D                    (2)

 1.5     Astronomers obtained the following spectral lines of an element:

                                                Blue                               Red
         Spectrum of element
         in a laboratory:

                                         Blue                                         Red
         Spectrum of element
         from a distant star:

         The observation confirms that the ...

         A      star is moving closer towards earth.

         B      earth is moving towards the star.

         C      temperature of earth is increasing.

         D      universe is expanding.                                                   (2)

Copyright reserved                                                          Please turn over

### Page 5

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)              PHYSICAL SCIENCES P1                                         5

 1.6    A stationary fire truck sounds its siren at frequency f0. A girl walks at a
        constant velocity towards the fire truck. She passes the fire truck and
        then walks away from it.

        Which ONE of the graphs below shows the changes in frequency heard
        by the girl over the distance she walks?

                            A                                        B

                            C                                        D                     (2)

 1.7    Two spheres, A and B, have charges of +1 C and +2 C respectively.
        They are brought into contact with each other and then moved to their
        original positions.

        The amount of charge transferred is …

        A       0,5 C from B to A.

        B       0,5 C from A to B.

        C       1,5 C from B to A.

        D       1,5 C from A to B.                                                         (2)

Copyright reserved                                                                    Please turn over

### Page 6

Downloaded from hlayiso.com
6                                   PHYSICAL SCIENCES P1                           (EC/SEPTEMBER 2015)

 1.8    A simplified diagram of a generator is shown below.

        Coil ABCD rotates …

        A     clockwise.

        B     anticlockwise.

        C     clockwise, reaches the vertical position and then reverses its
              direction.

        D     anticlockwise, reaches the vertical position and then reverses its
              direction.                                                                  (2)

 1.9    The circuit diagram below contains a combination of resistors R1, R2 and
        R3. The battery has an EMF of 12 V and an unknown resistor, r.

                                            EMF = 12 V
                                                        r
                                                    r

                                                                       R1
                               A

                                           S•
                                                •       R2

                                                            R3
        Switch S is now CLOSED.

                        Rexternal                  Reading on ammeter (A)
        A     Decreases                      Increases
        B     Decreases                      Remains constant
        C     Decreases                      Decreases
        D     Increases                      Increases                                    (2)

Copyright reserved                                                             Please turn over

### Page 7

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)             PHYSICAL SCIENCES P1                                         7

 1.10   A neon tube lights up when a large external voltage is applied across it.
        Which ONE of the following best describes the type of spectrum
        observed when the gas inside the tube is observed through a diffraction
        grating?

        A     Absorption spectrum

        B     Continuous emission spectrum

        C     Line absorption spectrum

        D     Line emission spectrum                                                   (2)
                                                                                      [20]

Copyright reserved                                                                  Please turn over

### Page 8

Downloaded from hlayiso.com
8                                    PHYSICAL SCIENCES P1                               (EC/SEPTEMBER 2015)

QUESTION 2 (Start on a new page.)

Two objects, A and B, of mass 8 kg and 4 kg respectively, are in contact. They
lie on a plane inclined at 30° to the horizontal. A force, F, applied parallel to the
incline, pushes on the objects as shown in the diagram below.

                               A
                                                B

        F

2.1      State Newton’s Second Law of motion in words.                                         (2)

         The magnitude of kinetic frictional force acting on object A is 6,8 N and
         on object B is 3,4 N.

2.2      Draw a labelled free-body diagram of the forces acting on B as it moves
         up the inclined plane.                                                                (4)

2.3      Calculate the:

         2.3.1       Magnitude of F if the system moves up the inclined plane at
                     CONSTANT VELOCITY.                                                        (5)

         2.3.2       Coefficient of kinetic friction for B.                                    (3)

2.4      The angle between the incline and the horizontal changes to 35°.

         2.4.1       How will the answer in QUESTION 2.3.2 be affected?
                     Write down INCREASES, DECREASES or REMAIN THE
                     SAME.                                                                     (1)

         2.4.2       How will the magnitude of the kinetic frictional force on object B
                     be affected?
                     Write INCREASES, DECREASES or REMAIN THE SAME.
                     Explain your answer.                                                     (3)
                                                                                             [18]

Copyright reserved                                                                 Please turn over

### Page 9

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)                 PHYSICAL SCIENCES P1                                     9

 QUESTION 3 (Start on a new page.)

 A ball is thrown vertically upwards at a velocity of 4 m.s-1 from the roof of a
 building with a of height 10 m. The ball strikes the ground and rebounds to a
 height of 3 m.
 Ignore the effects of friction.

 3.1    Calculate the:

        3.1.1         Time taken for the ball to reached its maximum height.           (3)

        3.1.2         Maximum height the ball reaches above the ground.                (4)

 3.2    The ball strikes the ground 1,09 s after it was thrown and remains in
        contact with the ground for 0,2 s before bouncing upwards.

        Sketch a graph (not to scale) of position versus time representing the
        entire motion of the ball.

        USE THE GROUND AS ZERO REFERENCE.

        Indicate the following on the graph:

           Height from which the ball was thrown
           Maximum height of the ball from ground
           Height reached by the ball after bouncing
           Time the ball strikes the ground
           Contact time of the ball with the ground                                  (5)
                                                                                     [13]

Copyright reserved                                                                 Please turn over

### Page 10

Downloaded from hlayiso.com
10                              PHYSICAL SCIENCES P1                                (EC/SEPTEMBER 2015)

 QUESTION 4 (Start on a new page.)

 A boy on a skateboard moves at 5 m.s-1 to the right towards point A at the
 bottom of a slope which is 1,6 m high. He is carrying a 4 kg parcel. The total
 mass of the boy, his skateboard and the parcel is 70 kg. He needs to increase
 his speed, in order to reach point B at the top of the slope. He decides that if he
 throws the parcel horizontally, it will increase his forward velocity.
 IGNORE ALL FRICTION.

 4.1    In which direction must the boy throw the parcel in order to increase his
        forward velocity? (TO THE LEFT or TO THE RIGHT)                                    (1)

 4.2    Give the name of Newton’s law of Motion that you used to obtain your
        answer in QUESTION 4.1.                                                            (1)

 4.3    State the Principle of conservation of mechanical energy.                          (2)

 4.4    Calculate the velocity of the boy immediately after the parcel leaves his
        hand in order for him to reach the top of the slope at point B.                    (4)

 4.5    Calculate the minimum velocity with which he must throw the parcel in
        order for him to reach the top of the slope at point B.                            (4)

 4.6    How will the answer in QUESTION 4.4 be affected, if the boy throws the
        same parcel with higher velocity in the same direction as indicated in
        QUESTION 4.1?

        Write down INCREASES, DECREASES or REMAIN THE SAME.
        Explain your answer.                                                               (3)
                                                                                          [15]

Copyright reserved                                                             Please turn over

### Page 11

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)              PHYSICAL SCIENCES P1                                       11

QUESTION 5 (Start on a new page.)

During a fire extinguishing operation, a helicopter remains stationary (hovers)
above a dam while filling a bucket with water. The bucket, of mass 80 kg, is
filled with 1 600 kg of water. It is lifted vertically upwards through a height of
20 m by a cable at a CONSTANT SPEED of 2 m.s-1. The tension in the cable
is 17 000 N.
Assume there is no sideways motion during the lift.
Air friction is NOT ignored.

                                                   17 000 N

5.1     State the work-energy theorem in words.                                          (2)

5.2     Draw a labelled free body diagram showing ALL the forces acting on
        the bucket of water, while being lifted upwards.                                 (3)

5.3     Use the WORK ENERGY THEOREM to calculate the work done by air
        friction on the bucket of water after moving through the height of 20 m.        (5)
                                                                                       [10]

Copyright reserved                                                                   Please turn over

### Page 12

Downloaded from hlayiso.com
12                              PHYSICAL SCIENCES P1                            (EC/SEPTEMBER 2015)

 QUESTION 6 (Start on a new page.)

 A siren of a stationary ambulance emits sound waves of frequency 280 Hz. A
 car is moving towards a stationary ambulance at a constant speed that is
 310 m.s-1, lower than the speed of sound in air.

 6.1    Define the Doppler Effect.                                                      (2)

 6.2    Calculate the frequency of sound detected by the driver of the car.
        Use the speed of sound in air as 340 m.s-1.                                     (5)

 6.3    How will the answer in QUESTION 6.2 be affected if the car moves away
        from the ambulance at the same constant speed?

        Write down only GREATER THAN, SMALLER THAN or EQUAL TO.

        Explain the answer.                                                             (3)

 6.4    Give ONE use of the Doppler flow meter.                                         (1)

 6.5    When a line in a hydrogen spectrum is measured in a laboratory, it has a
        wavelength of 1,32 x 10-15 m. The same line in the light of a star has a
        wavelength of 1,38 x 10-15 m.

        Is the star moving TOWARDS, or AWAY from the earth?

        Explain your answer.                                                           (2)
                                                                                      [13]

Copyright reserved                                                            Please turn over

### Page 13

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)               PHYSICAL SCIENCES P1                                      13

 QUESTION 7 (Start on a new page.)

 A -3 nC charge Q1 is placed 10 cm away from a +3 nC Q2 charge as shown in
 the diagram below.

 7.1    Draw the electric field pattern formed between the two charges.                  (3)

 7.2    A -2 nC charge Q3 is placed 5 cm away from Q2 as indicated in the
        diagram below.

        Draw a force diagram showing the electrostatic forces exerted on Q2 by
        Q1 and Q3 respectively.                                                          (2)

 7.3    Calculate the net force exerted on Q2 by Q1 and Q3 respectively.                 (8)

 7.4    An unknown point charge R is placed 3 cm away from point P as
        shown in the sketch below.

                              P                                                  R
                      +8 nC   •        2 cm                   •      1 cm

                                                          X

        Calculate the charge on R if the net electric field strength at point X is
        zero.                                                                           (5)
                                                                                       [18]

Copyright reserved                                                                   Please turn over

### Page 14

Downloaded from hlayiso.com
14                               PHYSICAL SCIENCES P1                                (EC/SEPTEMBER 2015)

 QUESTION 8 (Start on a new page.)

 The light bulb shown below is able to operate either with direct current or with
 alternating current. It displays its optimum operating conditions and the
 accompanying graph displays the current type that is being used.

                100 W

 8.1    Is the bulb operating with direct current, or alternating current?                   (1)

 8.2    Explain the meaning of 100 W.                                                        (1)

 8.3    Calculate the rms current in the bulb when it is connected in a circuit.             (4)

 8.4    Explain why ESKOM prefers AC instead of DC for long distance
        transmission of electricity.                                                         (2)
                                                                                             [8]

Copyright reserved                                                                 Please turn over

### Page 15

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)                  PHYSICAL SCIENCES P1                               15

QUESTION 9 (Start on a new page.)

Learners conduct an experiment as shown in the diagram below.

The results obtained are shown in the graph below.

                                 GRAPH OF CURRENT VERSUS POTENTIAL
                                            DIFFERENCE
                        1,8

          Current (A)

                        0,9

                         0
                                     0,5           1,0          1,5        2,0
                                     Potential Difference (V)

9.1     Use the graph to determine the following:

             9.1.1 Emf (ε) of the battery                                            (1)

             9.1.2 Internal resistance of the battery, WITHOUT USING THE
                   EQUATION ε = I(R + r) IN YOUR CALCULATIONS                        (4)

Copyright reserved                                                               Please turn over

### Page 16

Downloaded from hlayiso.com
16                                      PHYSICAL SCIENCES P1                         (EC/SEPTEMBER 2015)

9.2     The resistance of the rheostat is now increased.

          9.2.1      How will this change the voltmeter reading?
                     Write down INCREASES, DECREASES or REMAIN THE
                     SAME.                                                                  (1)

          9.2.2      Explain your answer.                                                   (3)

9.3     Four identical cells, EACH with a emf of 1,5 V and an internal resistance
        of 0,25 Ω are connected in series with each other and to the resistors as
        shown below.

                                        r         r          r   r
                           A

                  4Ω

                                                      14 Ω

                                                        RX

        9.3.1        Write down the potential difference across the cells when the
                     switch is open.

        9.3.2        When switch S is closed, the potential difference across the 4 Ω
                     resistor is 2 V.

                     Calculate the:                                                         (2)

                     (a)       Current in the circuit                                       (3)

                     (b)       Rx                                                           (8)
                                                                                           [22]

Copyright reserved                                                               Please turn over

### Page 17

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)                PHYSICAL SCIENCES P1                                    17

QUESTION 10 (Start on a new page.)

The simplified diagram below illustrates how an emitter, when light shines on it,
emits electrons.
                                        Incident light

                                   e-                          e-

                         Emitter                               Collector

                                        Potential difference               A

10.1    What phenomenon is displayed in the diagram?                                    (1)
The incident monochromatic light transfers energy to the emitter. The emitter
releases 1,01 x 109 photo-electrons per second. The threshold frequency of
the emitter is 1,21 x 1015 Hz.
(NOTE: ONE photon releases ONE electron.)
10.2    Define the term threshold frequency (cut-off frequency).                        (2)
10.3    Calculate the current flowing through the ammeter.                              (5)
10.4    The brightness of the incident light is now decreased.
        What effect will this change have on the current strength in
        QUESTION 10.3?
        Write down INCREASES, DECREASES or REMAIN THE SAME.                             (1)
10.5    The emitter is replaced by another one with a threshold frequency
        greater than 1,21 x 1015 Hz. The same monochromatic light was used.
         10.5.1 How does this change have an effect on the kinetic energy of
                the photoelectrons released?
                      Write down only GREATER THAN, SMALLER THAN or
                      STAYS THE SAME.                                                   (1)
         10.5.2 Explain your answer in QUESTION 10.5.1.                                 (2)
10.6    White light shines through a cold diluted gas and photons with specific
        frequencies are absorbed and appear as black lines in the continuous
        spectrum.
        Differentiate between an absorption spectrum and a line emission
        spectrum.                                                                      (2)
                                                                                      [14]

                                                                           TOTAL:      150

Copyright reserved                                                                  Please turn over

### Page 18

Downloaded from hlayiso.com

### Page 19

Downloaded from hlayiso.com
18                                 PHYSICAL SCIENCES P1                        (EC/SEPTEMBER 2015)

                          DATA FOR PHYSICAL SCIENCES GRADE 12
                                   PAPER 1 (PHYSICS)

                     GEGEWENS VIR FISIESE WETENSKAPPE GRAAD 12
                                VRAESTEL 1 (FISIKA)

TABLE 1: PHYSICAL CONSTANTS/TABEL 1: FISIESE KONSTANTES

           NAME/NAAM                   SYMBOL/SIMBOOL      VALUE/WAARDE
Acceleration due to gravity
Swaartekragversnelling
                                               g                9,8 m•s-2
Universal gravitational constant
Universele gravitasiekonstant
                                               G          6,67 x 10-11 N•m2•kg-2
Speed of light in a vacuum
Spoed van lig in ŉ vakuum
                                               c             3,0 x 108 m•s-1
Planck's constant
Planck se konstante
                                               h             6,63 x 10-34 J•s
Coulomb's constant
Coulomb se konstante
                                               k           9,0 x 109 N•m2•C-2
Charge on electron
Lading op elektron
                                               e              -1,6 x 10-19 C
Electron mass
Elektronmassa
                                              me             9,11 x 10-31 kg
Mass of earth
Massa op aarde
                                               M             5,98 x 1024 kg
Radius of earth
Radius van aarde
                                              RE              6,38 x 103 km

Copyright reserved                                                          Please turn over

### Page 20

Downloaded from hlayiso.com

### Page 21

Downloaded from hlayiso.com
(EC/SEPTEMBER 2015)                PHYSICAL SCIENCES P1                                            19

TABLE 2: FORMULAE/TABEL 2: FORMULES

MOTION/BEWEGING

v f  vi  a t                             Δx  v i Δt  21 at 2 or/of Δy  v i Δt  21 at 2
                                                  v  vf                 v  vf 
v f  v i  2ax or/of v f  v i  2ay
  2       2                2   2
                                            Δx   i       Δt or/of Δy   i       Δt
                                                  2                      2 

FORCE/KRAG

                                            p  mv
Fnet  ma

                                            f k = µk N
fsmax = µsN
Fnet t  p
                                            w  mg
p  mv f  mv i
       Gm 1m2                                     M
F                                          g = G d2
         d2

WORK, ENERGY AND POWER/ARBEID, ENERGIE EN DRYWING

W  Fx cos                                U  mgh              or/of        EP  mgh
                                            Wnet  K            or/of    Wnet  Ek
   1                           1
K  mv2            or/of   Ek  mv2
   2                           2            K  K f  K i       or/of    Ek  Ekf  Eki
                                               W
Wnc  K  U or/of Wnc  Ek  Ep         P
                                               t
Pav  Fv

WAVES, SOUND AND LIGHT/GOLWE, KLANK EN LIG

                                                 1
vf                                        T
                                                 f
    v  vL         v  vL                                                 c
fL        fs fL         fb                E  hf       or/of     E h
    v  vs         v  vb                                                 
E  Wo  E k where/waar
                                        1                           1
E  hf and/en W0  hf0 and/en Ek  mv                    K max 
                                      2                                 2
                                                                      mvmax
                                        2      or/ of               2

Copyright reserved                                                                          Please turn over

### Page 22

Downloaded from hlayiso.com

### Page 23

Downloaded from hlayiso.com
20                             PHYSICAL SCIENCES P1                                               (EC/SEPTEMBER 2015)

ELECTROSTATICS/ELEKTROSTATIKA

  kQ1Q 2                                       kQ
F                                          E
     r2                                         r2
   V                                           F
E                                          E
   d                                           q
   W                                           Q
V                                          n=
   q                                           qe

ELECTRIC CIRCUITS/ELEKTRIESE STROOMBANE

   V                                        emf ( ε ) = I(R + r)
R
   I                                        emk ( ε ) = I(R + r)
R s  R1  R 2  ...
 1   1   1                                  q  I t
          .. .
R p R1 R 2

W = Vq                                           W
                                            P
                                                 Δt
W = VI  t
                                            P = VI
W= I2R  t
                                            P = I 2R
     V Δt 2
W=                                              V2
      R                                     P
                                                 R

ALTERNATING CURRENT/WISSELSTROOM

                                            Paverage  Vrms I rms       /   Pgemiddeld  Vwgk I wgk
          I max                   I
I rms                 /   I wgk  maks
              2                     2
                                            Paverage  I rms
                                                         2
                                                             R          /   Pgemiddeld  I 2wgkR
           Vmax                     Vmaks
Vrms                  /   Vwgk                      V2
                                                                                            2
                                                                                           Vwgk
                  2                   2     Paverage  rms          /       Pgemiddeld 
                                                       R                                    R

Copyright reserved                                                                          Please turn over

### Page 24

Downloaded from hlayiso.com

## Related documents

- [2015 SEPT Metro South Physics P 1](https://www.hlayiso.com/library/2015-sept-metro-south-physics-p-1/48a052c6-a1c7-4786-a250-996ebe63e9d7) — Physical Sciences · QP · 2015
- [PHYS SCIENCES P1 QP GR12 SEPT 2023 Xhosa](https://www.hlayiso.com/library/phys-sciences-p1-qp-gr12-sept-2023-xhosa/2bbd2fc3-2b94-4d0c-9012-591942a529e4) — Physical Sciences · QP · 2023
- [PHYS SCIENCES P1 GR12 QP SEPT2022 English](https://www.hlayiso.com/library/phys-sciences-p1-gr12-qp-sept2022-english/ef216851-4105-40f6-9cb0-f3146d776699) — Physical Sciences · QP · 2022 · Eng
- [PHYSICS P2 GR12 SEPT 2015 MEMO EA](https://www.hlayiso.com/library/physics-p2-gr12-sept-2015-memo-ea/8542c9fa-a26c-49c5-8515-b3211ad31c4f) — Physical Sciences · Memo · 2015
- [MP 2015 SEPT Physics P 1 Memo](https://www.hlayiso.com/library/mp-2015-sept-physics-p-1-memo/888a8f9f-c0da-4ad1-b3ae-e2ecd133acdd) — Physical Sciences · Memo · 2015
- [Physical Sciences P1 Nov 2015 Memo Afr Eng](https://www.hlayiso.com/library/physical-sciences-p1-nov-2015-memo-afr-eng/140f25b7-f3c1-406a-a99d-6549fa7ea9e0) — Physical Sciences · Memo · 2015 · Eng

## More from Grade 12 Physical Sciences

- [Pysical Sciences P2 Memo AfrEng watermark](https://www.hlayiso.com/library/pysical-sciences-p2-memo-afreng-watermark/cb0c7842-3512-4579-a012-a91b31f09008) — Memo · 2025
- [PHY SC P1 MEMO GR 12 SEPT 2025 E+A watermark](https://www.hlayiso.com/library/phy-sc-p1-memo-gr-12-sept-2025-e-a-watermark/ee8fc295-8eb6-4163-acb0-c6d2b3dec26f) — Memo · 2025
- [Physical Sciences Physics Grade 12 NSC MEMO P1 May June 2025 Limpopo](https://www.hlayiso.com/library/physical-sciences-physics-grade-12-nsc-memo-p1-may-june-2025-limpopo/82f7a5dc-e27f-400b-84ae-bcf3217097d6) — Memo · 2025
- [Physical Sciences Physics Grade 12 NSC MEMO P2 May June 2025 Limpopo](https://www.hlayiso.com/library/physical-sciences-physics-grade-12-nsc-memo-p2-may-june-2025-limpopo/f2cd1409-6db0-4f23-b078-ce944b93c2b5) — Memo · 2025
- [Physics Grade 12 NSC P1 MEMO September 2025 Limpopo](https://www.hlayiso.com/library/physics-grade-12-nsc-p1-memo-september-2025-limpopo/ee326b2b-8480-42f2-8ce0-7bcf6229bde6) — Memo · 2025
- [Physical Sciences Physics Grade 12 NSC QP P1 May June 2025 Mpumalanga](https://www.hlayiso.com/library/physical-sciences-physics-grade-12-nsc-qp-p1-may-june-2025-mpumalanga/d9c5f1c3-bd6c-468e-a50a-f6b40782c695) — QP · 2025

## Collection

- [Grade 12 past papers](https://www.hlayiso.com/grade-12/past-papers)

---

Hlayiso: free CAPS and IEB past papers, memos, notes and study guides for South African learners. When citing, link the page URL above, not a PDF or /api/ URL.
